/*
 * Copyright (c) 2021-2025, Ali Mohammad Pur <mpfard@serenityos.org>
 * Copyright (c) 2023, Sam Atkins <atkinssj@serenityos.org>
 *
 * SPDX-License-Identifier: BSD-2-Clause
 */

#include <AK/Bitmap.h>
#include <AK/ByteReader.h>
#include <AK/Debug.h>
#include <AK/Endian.h>
#include <AK/MemoryStream.h>
#include <AK/NumericLimits.h>
#include <AK/QuickSort.h>
#include <AK/RedBlackTree.h>
#include <AK/SIMDExtras.h>
#include <AK/Time.h>
#include <LibWasm/AbstractMachine/AbstractMachine.h>
#include <LibWasm/AbstractMachine/BytecodeInterpreter.h>
#include <LibWasm/AbstractMachine/Configuration.h>
#include <LibWasm/AbstractMachine/Operators.h>
#include <LibWasm/Opcode.h>
#include <LibWasm/Printer/Printer.h>
#include <LibWasm/Types.h>

using namespace AK::SIMD;

#ifdef AK_COMPILER_CLANG
#    define TAILCALL [[clang::musttail]]
#    define HAS_TAILCALL
#elif defined(AK_COMPILER_GCC) && (__GNUC__ > 14)
#    define TAILCALL [[gnu::musttail]]
#    define HAS_TAILCALL
#else
#    define TAILCALL
#endif

// ASAN allocates frames for all the not-explicitly-tail-called functions,
// which blows out the stack. So disable direct threading when ASAN is enabled.
// We use the explicit annotation where available, so allow it there.
#if defined(HAS_ADDRESS_SANITIZER) && !defined(HAS_TAILCALL)
constexpr static auto should_try_to_use_direct_threading = false;
#else
constexpr static auto should_try_to_use_direct_threading = true;
#endif

namespace Wasm {

template<typename T>
struct ConvertToRaw {
    T operator()(T value)
    {
        return LittleEndian<T>(value);
    }
};

template<>
struct ConvertToRaw<float> {
    u32 operator()(float value) const { return bit_cast<LittleEndian<u32>>(value); }
};

template<>
struct ConvertToRaw<double> {
    u64 operator()(double value) const { return bit_cast<LittleEndian<u64>>(value); }
};

#define TRAP_IF_NOT(x, ...)                                                                    \
    do {                                                                                       \
        if (trap_if_not(x, #x##sv __VA_OPT__(, ) __VA_ARGS__)) {                               \
            dbgln_if(WASM_TRACE_DEBUG, "Trapped because {} failed, at line {}", #x, __LINE__); \
            return Outcome::Return;                                                            \
        }                                                                                      \
    } while (false)

#define TRAP_IN_LOOP_IF_NOT(x, ...)                                                            \
    do {                                                                                       \
        if (interpreter.trap_if_not(x, #x##sv __VA_OPT__(, ) __VA_ARGS__)) {                   \
            dbgln_if(WASM_TRACE_DEBUG, "Trapped because {} failed, at line {}", #x, __LINE__); \
            return Outcome::Return;                                                            \
        }                                                                                      \
    } while (false)

void BytecodeInterpreter::interpret(Configuration& configuration)
{
    m_trap = Empty {};
    auto& expression = configuration.frame().expression();
    auto const should_limit_instruction_count = configuration.should_limit_instruction_count();
    if (!expression.compiled_instructions.dispatches.is_empty()) {
        if (expression.compiled_instructions.direct) {
            if (should_limit_instruction_count)
                return interpret_impl<true, true, true>(configuration, expression);
            return interpret_impl<true, false, true>(configuration, expression);
        }
        return interpret_impl<true, false, false>(configuration, expression);
    }
    if (should_limit_instruction_count)
        return interpret_impl<false, true, false>(configuration, expression);
    return interpret_impl<false, false, false>(configuration, expression);
}

constexpr static u32 default_sources_and_destination = (to_underlying(Dispatch::RegisterOrStack::Stack) | (to_underlying(Dispatch::RegisterOrStack::Stack) << 2) | (to_underlying(Dispatch::RegisterOrStack::Stack) << 4));

template<u64 opcode>
struct InstructionHandler { };

#define HANDLER_PARAMS(S)                    \
    S(BytecodeInterpreter&, interpreter),    \
        S(Configuration&, configuration),    \
        S(Instruction const*, instruction),  \
        S(SourcesAndDestination, addresses), \
        S(u64, current_ip_value),            \
        S(Dispatch const*, cc)

#define DECOMPOSE_PARAMS(t, n) [[maybe_unused]] t n
#define DECOMPOSE_PARAMS_NAME_ONLY(t, n) n
#define DECOMPOSE_PARAMS_TYPE_ONLY(t, ...) t
#define HANDLE_INSTRUCTION(name, ...)                                \
    template<>                                                       \
    struct InstructionHandler<Instructions::name.value()> {          \
        template<bool HasDynamicInsnLimit, typename Continue>        \
        static Outcome operator()(HANDLER_PARAMS(DECOMPOSE_PARAMS)); \
    };                                                               \
    template<bool HasDynamicInsnLimit, typename Continue>            \
    Outcome InstructionHandler<Instructions::name.value()>::operator()(HANDLER_PARAMS(DECOMPOSE_PARAMS))
#define ALIAS_INSTRUCTION(new_name, existing_name)                                                                              \
    template<>                                                                                                                  \
    struct InstructionHandler<Instructions::new_name.value()> {                                                                 \
        template<bool HasDynamicInsnLimit, typename Continue>                                                                   \
        static Outcome operator()(HANDLER_PARAMS(DECOMPOSE_PARAMS))                                                             \
        {                                                                                                                       \
            TAILCALL return InstructionHandler<Instructions::existing_name.value()>::operator()<HasDynamicInsnLimit, Continue>( \
                HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));                                                                    \
        }                                                                                                                       \
    };

struct Continue {
    static Outcome operator()(BytecodeInterpreter& interpreter, Configuration& configuration, Instruction const*, SourcesAndDestination addresses, u64 current_ip_value, Dispatch const* cc)
    {
        current_ip_value++;
        addresses.sources_and_destination = cc[current_ip_value].sources_and_destination;
        auto const instruction = cc[current_ip_value].instruction;
        auto const handler = bit_cast<Outcome (*)(HANDLER_PARAMS(DECOMPOSE_PARAMS_TYPE_ONLY))>(cc[current_ip_value].handler_ptr);
        TAILCALL return handler(interpreter, configuration, instruction, addresses, current_ip_value, cc);
    }
};

struct Skip {
    static Outcome operator()(BytecodeInterpreter&, Configuration&, Instruction const*, SourcesAndDestination, u64 ip, Dispatch const*)
    {
        return bit_cast<Outcome>(ip);
    }
};

#define continue_(...) Continue::operator()(__VA_ARGS__)

HANDLE_INSTRUCTION(synthetic_end_expression)
{
    return Outcome::Return;
}

HANDLE_INSTRUCTION(f64_reinterpret_i64)
{
    if (interpreter.unary_operation<i64, double, Operators::Reinterpret<double>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_extend8_s)
{
    if (interpreter.unary_operation<i32, i32, Operators::SignExtend<i8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_extend16_s)
{
    if (interpreter.unary_operation<i32, i32, Operators::SignExtend<i16>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_extend8_s)
{
    if (interpreter.unary_operation<i64, i64, Operators::SignExtend<i8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_extend16_s)
{
    if (interpreter.unary_operation<i64, i64, Operators::SignExtend<i16>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_extend32_s)
{
    if (interpreter.unary_operation<i64, i64, Operators::SignExtend<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_sat_f32_s)
{
    if (interpreter.unary_operation<float, i32, Operators::SaturatingTruncate<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_sat_f32_u)
{
    if (interpreter.unary_operation<float, i32, Operators::SaturatingTruncate<u32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_sat_f64_s)
{
    if (interpreter.unary_operation<double, i32, Operators::SaturatingTruncate<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_sat_f64_u)
{
    if (interpreter.unary_operation<double, i32, Operators::SaturatingTruncate<u32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_sat_f32_s)
{
    if (interpreter.unary_operation<float, i64, Operators::SaturatingTruncate<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_sat_f32_u)
{
    if (interpreter.unary_operation<float, i64, Operators::SaturatingTruncate<u64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_sat_f64_s)
{
    if (interpreter.unary_operation<double, i64, Operators::SaturatingTruncate<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_sat_f64_u)
{
    if (interpreter.unary_operation<double, i64, Operators::SaturatingTruncate<u64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_const)
{
    configuration.push_to_destination(Value(instruction->arguments().get<u128>()), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load)
{
    if (interpreter.load_and_push<u128, u128>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load8x8_s)
{
    if (interpreter.load_and_push_mxn<8, 8, MakeSigned>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load8x8_u)
{
    if (interpreter.load_and_push_mxn<8, 8, MakeUnsigned>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load16x4_s)
{
    if (interpreter.load_and_push_mxn<16, 4, MakeSigned>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load16x4_u)
{
    if (interpreter.load_and_push_mxn<16, 4, MakeUnsigned>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load32x2_s)
{
    if (interpreter.load_and_push_mxn<32, 2, MakeSigned>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load32x2_u)
{
    if (interpreter.load_and_push_mxn<32, 2, MakeUnsigned>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load8_splat)
{
    if (interpreter.load_and_push_m_splat<8>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load16_splat)
{
    if (interpreter.load_and_push_m_splat<16>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load32_splat)
{
    if (interpreter.load_and_push_m_splat<32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load64_splat)
{
    if (interpreter.load_and_push_m_splat<64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_splat)
{
    interpreter.pop_and_push_m_splat<8, NativeIntegralType>(configuration, *instruction, addresses);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_splat)
{
    interpreter.pop_and_push_m_splat<16, NativeIntegralType>(configuration, *instruction, addresses);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_splat)
{
    interpreter.pop_and_push_m_splat<32, NativeIntegralType>(configuration, *instruction, addresses);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_splat)
{
    interpreter.pop_and_push_m_splat<64, NativeIntegralType>(configuration, *instruction, addresses);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_splat)
{
    interpreter.pop_and_push_m_splat<32, NativeFloatingType>(configuration, *instruction, addresses);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_splat)
{
    interpreter.pop_and_push_m_splat<64, NativeFloatingType>(configuration, *instruction, addresses);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_shuffle)
{
    auto& arg = instruction->arguments().get<Instruction::ShuffleArgument>();
    auto b = interpreter.pop_vector<u8, MakeUnsigned>(configuration, 0, addresses);
    auto a = interpreter.pop_vector<u8, MakeUnsigned>(configuration, 1, addresses);
    using VectorType = Native128ByteVectorOf<u8, MakeUnsigned>;
    VectorType result;
    for (size_t i = 0; i < 16; ++i)
        if (arg.lanes[i] < 16)
            result[i] = a[arg.lanes[i]];
        else
            result[i] = b[arg.lanes[i] - 16];
    configuration.push_to_destination(Value(bit_cast<u128>(result)), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_store)
{
    if (interpreter.pop_and_store<u128, u128>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_ge)
{
    if (interpreter.binary_numeric_operation<double, i32, Operators::GreaterThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_clz)
{
    if (interpreter.unary_operation<i32, i32, Operators::CountLeadingZeros>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_ctz)
{
    if (interpreter.unary_operation<i32, i32, Operators::CountTrailingZeros>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_popcnt)
{
    if (interpreter.unary_operation<i32, i32, Operators::PopCount>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_add)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::Add>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_sub)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::Subtract>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_mul)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::Multiply>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_divs)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::Divide>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_divu)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::Divide>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_rems)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::Modulo>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_remu)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::Modulo>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_and)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::BitAnd>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_or)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::BitOr>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_xor)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::BitXor>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_shl)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::BitShiftLeft>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_shrs)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::BitShiftRight>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_shru)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::BitShiftRight>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_rotl)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::BitRotateLeft>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_rotr)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::BitRotateRight>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_clz)
{
    if (interpreter.unary_operation<i64, i64, Operators::CountLeadingZeros>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_ctz)
{
    if (interpreter.unary_operation<i64, i64, Operators::CountTrailingZeros>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_popcnt)
{
    if (interpreter.unary_operation<i64, i64, Operators::PopCount>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_add)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::Add>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_sub)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::Subtract>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_mul)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::Multiply>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_divs)
{
    if (interpreter.binary_numeric_operation<i64, i64, Operators::Divide>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_divu)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::Divide>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_rems)
{
    if (interpreter.binary_numeric_operation<i64, i64, Operators::Modulo>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_remu)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::Modulo>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_and)
{
    if (interpreter.binary_numeric_operation<i64, i64, Operators::BitAnd>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_or)
{
    if (interpreter.binary_numeric_operation<i64, i64, Operators::BitOr>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_xor)
{
    if (interpreter.binary_numeric_operation<i64, i64, Operators::BitXor>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_shl)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::BitShiftLeft>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_shrs)
{
    if (interpreter.binary_numeric_operation<i64, i64, Operators::BitShiftRight>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_shru)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::BitShiftRight>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_rotl)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::BitRotateLeft>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_rotr)
{
    if (interpreter.binary_numeric_operation<u64, i64, Operators::BitRotateRight>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_abs)
{
    if (interpreter.unary_operation<float, float, Operators::Absolute>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_neg)
{
    if (interpreter.unary_operation<float, float, Operators::Negate>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_ceil)
{
    if (interpreter.unary_operation<float, float, Operators::Ceil>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_floor)
{
    if (interpreter.unary_operation<float, float, Operators::Floor>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_trunc)
{
    if (interpreter.unary_operation<float, float, Operators::Truncate>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_nearest)
{
    if (interpreter.unary_operation<float, float, Operators::NearbyIntegral>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_sqrt)
{
    if (interpreter.unary_operation<float, float, Operators::SquareRoot>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_add)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::Add>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_sub)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::Subtract>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_mul)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::Multiply>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_div)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::Divide>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_min)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::Minimum>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_max)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::Maximum>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_copysign)
{
    if (interpreter.binary_numeric_operation<float, float, Operators::CopySign>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_abs)
{
    if (interpreter.unary_operation<double, double, Operators::Absolute>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_neg)
{
    if (interpreter.unary_operation<double, double, Operators::Negate>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_ceil)
{
    if (interpreter.unary_operation<double, double, Operators::Ceil>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_floor)
{
    if (interpreter.unary_operation<double, double, Operators::Floor>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_trunc)
{
    if (interpreter.unary_operation<double, double, Operators::Truncate>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_nearest)
{
    if (interpreter.unary_operation<double, double, Operators::NearbyIntegral>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_sqrt)
{
    if (interpreter.unary_operation<double, double, Operators::SquareRoot>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_add)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::Add>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_sub)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::Subtract>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_mul)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::Multiply>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_div)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::Divide>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_min)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::Minimum>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_max)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::Maximum>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_copysign)
{
    if (interpreter.binary_numeric_operation<double, double, Operators::CopySign>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_wrap_i64)
{
    if (interpreter.unary_operation<i64, i32, Operators::Wrap<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_sf32)
{
    if (interpreter.unary_operation<float, i32, Operators::CheckedTruncate<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_uf32)
{
    if (interpreter.unary_operation<float, i32, Operators::CheckedTruncate<u32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_sf64)
{
    if (interpreter.unary_operation<double, i32, Operators::CheckedTruncate<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_trunc_uf64)
{
    if (interpreter.unary_operation<double, i32, Operators::CheckedTruncate<u32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_sf32)
{
    if (interpreter.unary_operation<float, i64, Operators::CheckedTruncate<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_uf32)
{
    if (interpreter.unary_operation<float, i64, Operators::CheckedTruncate<u64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_sf64)
{
    if (interpreter.unary_operation<double, i64, Operators::CheckedTruncate<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_trunc_uf64)
{
    if (interpreter.unary_operation<double, i64, Operators::CheckedTruncate<u64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_extend_si32)
{
    if (interpreter.unary_operation<i32, i64, Operators::Extend<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_extend_ui32)
{
    if (interpreter.unary_operation<u32, i64, Operators::Extend<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_convert_si32)
{
    if (interpreter.unary_operation<i32, float, Operators::Convert<float>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_convert_ui32)
{
    if (interpreter.unary_operation<u32, float, Operators::Convert<float>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_convert_si64)
{
    if (interpreter.unary_operation<i64, float, Operators::Convert<float>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_convert_ui64)
{
    if (interpreter.unary_operation<u64, float, Operators::Convert<float>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_demote_f64)
{
    if (interpreter.unary_operation<double, float, Operators::Demote>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_convert_si32)
{
    if (interpreter.unary_operation<i32, double, Operators::Convert<double>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_convert_ui32)
{
    if (interpreter.unary_operation<u32, double, Operators::Convert<double>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_convert_si64)
{
    if (interpreter.unary_operation<i64, double, Operators::Convert<double>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_convert_ui64)
{
    if (interpreter.unary_operation<u64, double, Operators::Convert<double>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_promote_f32)
{
    if (interpreter.unary_operation<float, double, Operators::Promote>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_reinterpret_f32)
{
    if (interpreter.unary_operation<float, i32, Operators::Reinterpret<i32>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_reinterpret_f64)
{
    if (interpreter.unary_operation<double, i64, Operators::Reinterpret<i64>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_reinterpret_i32)
{
    if (interpreter.unary_operation<i32, float, Operators::Reinterpret<float>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(local_get)
{
    configuration.push_to_destination(configuration.local(instruction->local_index()), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_const)
{
    configuration.push_to_destination(Value(instruction->arguments().unsafe_get<i32>()), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_i32_add2local)
{
    configuration.push_to_destination(Value(static_cast<i32>(Operators::Add {}(configuration.local(instruction->local_index()).to<u32>(), configuration.local(instruction->arguments().get<LocalIndex>()).to<u32>()))), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_i32_addconstlocal)
{
    configuration.push_to_destination(Value(static_cast<i32>(Operators::Add {}(configuration.local(instruction->local_index()).to<u32>(), instruction->arguments().unsafe_get<i32>()))), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_i32_andconstlocal)
{
    configuration.push_to_destination(Value(Operators::BitAnd {}(configuration.local(instruction->local_index()).to<i32>(), instruction->arguments().unsafe_get<i32>())), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_i32_storelocal)
{
    if (interpreter.store_value(configuration, *instruction, ConvertToRaw<i32> {}(configuration.local(instruction->local_index()).to<i32>()), 0, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_i64_storelocal)
{
    if (interpreter.store_value(configuration, *instruction, ConvertToRaw<i64> {}(configuration.local(instruction->local_index()).to<i64>()), 0, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_local_seti32_const)
{
    configuration.local(instruction->local_index()) = Value(instruction->arguments().unsafe_get<i32>());
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_00)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_01)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_10)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_11)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_20)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_21)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_30)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(synthetic_call_31)
{
    auto regs_copy = configuration.regs;
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "[{}] call(#{} -> {})", current_ip_value, index.value(), address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    configuration.regs = regs_copy;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(unreachable)
{
    interpreter.set_trap("Unreachable"sv);
    return Outcome::Return;
}

HANDLE_INSTRUCTION(nop)
{
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(local_set)
{
    // bounds checked by verifier.
    configuration.local(instruction->local_index()) = configuration.take_source(0, addresses.sources);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_const)
{
    configuration.push_to_destination(Value(instruction->arguments().unsafe_get<i64>()), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_const)
{
    configuration.push_to_destination(Value(instruction->arguments().unsafe_get<float>()), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_const)
{
    configuration.push_to_destination(Value(instruction->arguments().unsafe_get<double>()), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(block)
{
    size_t arity = 0;
    size_t param_arity = 0;
    auto& args = instruction->arguments().unsafe_get<Instruction::StructuredInstructionArgs>();
    if (args.block_type.kind() != BlockType::Empty) [[unlikely]] {
        switch (args.block_type.kind()) {
        case BlockType::Type:
            arity = 1;
            break;
        case BlockType::Index: {
            auto& type = configuration.frame().module().types()[args.block_type.type_index().value()];
            arity = type.results().size();
            param_arity = type.parameters().size();
            break;
        }
        case BlockType::Empty:
            VERIFY_NOT_REACHED();
        }
    }

    configuration.label_stack().append(Label(arity, args.end_ip, configuration.value_stack().size() - param_arity));
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(loop)
{
    auto& args = instruction->arguments().get<Instruction::StructuredInstructionArgs>();
    size_t arity = 0;
    if (args.block_type.kind() == BlockType::Index) {
        auto& type = configuration.frame().module().types()[args.block_type.type_index().value()];
        arity = type.parameters().size();
    }
    configuration.label_stack().append(Label(arity, current_ip_value + 1, configuration.value_stack().size() - arity));
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(if_)
{
    size_t arity = 0;
    size_t param_arity = 0;
    auto& args = instruction->arguments().unsafe_get<Instruction::StructuredInstructionArgs>();
    switch (args.block_type.kind()) {
    case BlockType::Empty:
        break;
    case BlockType::Type:
        arity = 1;
        break;
    case BlockType::Index: {
        auto& type = configuration.frame().module().types()[args.block_type.type_index().value()];
        arity = type.results().size();
        param_arity = type.parameters().size();
    }
    }

    auto value = configuration.take_source(0, addresses.sources).to<i32>();
    auto end_label = Label(arity, args.end_ip.value(), configuration.value_stack().size() - param_arity);
    if (value == 0) {
        if (args.else_ip.has_value()) {
            current_ip_value = args.else_ip->value() - 1;
            configuration.label_stack().append(end_label);
        } else {
            current_ip_value = args.end_ip.value();
        }
    } else {
        configuration.label_stack().append(end_label);
    }
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(structured_end)
{
    configuration.label_stack().take_last();
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(structured_else)
{
    auto label = configuration.label_stack().take_last();
    // Jump to the end label
    current_ip_value = label.continuation().value() - 1;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(return_)
{
    configuration.label_stack().shrink(configuration.frame().label_index() + 1, true);
    return Outcome::Return;
}

HANDLE_INSTRUCTION(br)
{
    current_ip_value = interpreter.branch_to_label(configuration, instruction->arguments().get<LabelIndex>()).value();
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(br_if)
{
    // bounds checked by verifier.
    auto cond = configuration.take_source(0, addresses.sources).to<i32>();
    if (cond == 0)
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
    current_ip_value = interpreter.branch_to_label(configuration, instruction->arguments().get<LabelIndex>()).value();
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(br_table)
{
    auto& args = instruction->arguments().get<Instruction::TableBranchArgs>();
    auto i = configuration.take_source(0, addresses.sources).to<u32>();

    if (i >= args.labels.size()) {
        current_ip_value = interpreter.branch_to_label(configuration, args.default_).value();
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
    }
    current_ip_value = interpreter.branch_to_label(configuration, args.labels[i]).value();
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(call)
{
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "call({})", address.value());
    if (interpreter.call_address(configuration, address) == Outcome::Return)
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(return_call)
{
    auto index = instruction->arguments().get<FunctionIndex>();
    auto address = configuration.frame().module().functions()[index.value()];
    configuration.label_stack().shrink(configuration.frame().label_index() + 1, true);
    dbgln_if(WASM_TRACE_DEBUG, "tail call({})", address.value());
    switch (auto const outcome = interpreter.call_address(configuration, address, BytecodeInterpreter::CallAddressSource::DirectTailCall)) {
    default:
        // Some IP we have to continue from.
        current_ip_value = to_underlying(outcome) - 1;
        addresses = { .sources_and_destination = default_sources_and_destination };
        cc = configuration.frame().expression().compiled_instructions.dispatches.data();
        [[fallthrough]];
    case Outcome::Continue:
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
    case Outcome::Return:
        return Outcome::Return;
    }
}

HANDLE_INSTRUCTION(call_indirect)
{
    auto& args = instruction->arguments().get<Instruction::IndirectCallArgs>();
    auto table_address = configuration.frame().module().tables()[args.table.value()];
    auto table_instance = configuration.store().get(table_address);
    // bounds checked by verifier.
    auto index = configuration.take_source(0, addresses.sources).to<i32>();
    TRAP_IN_LOOP_IF_NOT(index >= 0);
    TRAP_IN_LOOP_IF_NOT(static_cast<size_t>(index) < table_instance->elements().size());
    auto& element = table_instance->elements()[index];
    TRAP_IN_LOOP_IF_NOT(element.ref().has<Reference::Func>());
    auto address = element.ref().get<Reference::Func>().address;
    auto const& type_actual = configuration.store().get(address)->visit([](auto& f) -> decltype(auto) { return f.type(); });
    auto const& type_expected = configuration.frame().module().types()[args.type.value()];
    TRAP_IN_LOOP_IF_NOT(type_actual.parameters().size() == type_expected.parameters().size());
    TRAP_IN_LOOP_IF_NOT(type_actual.results().size() == type_expected.results().size());
    TRAP_IN_LOOP_IF_NOT(type_actual.parameters() == type_expected.parameters());
    TRAP_IN_LOOP_IF_NOT(type_actual.results() == type_expected.results());

    dbgln_if(WASM_TRACE_DEBUG, "call_indirect({} -> {})", index, address.value());
    if (interpreter.call_address(configuration, address, BytecodeInterpreter::CallAddressSource::IndirectCall) == Outcome::Return)
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(return_call_indirect)
{
    auto& args = instruction->arguments().get<Instruction::IndirectCallArgs>();
    auto table_address = configuration.frame().module().tables()[args.table.value()];
    auto table_instance = configuration.store().get(table_address);
    // bounds checked by verifier.
    auto index = configuration.take_source(0, addresses.sources).to<i32>();
    TRAP_IN_LOOP_IF_NOT(index >= 0);
    TRAP_IN_LOOP_IF_NOT(static_cast<size_t>(index) < table_instance->elements().size());
    auto& element = table_instance->elements()[index];
    TRAP_IN_LOOP_IF_NOT(element.ref().has<Reference::Func>());
    auto address = element.ref().get<Reference::Func>().address;
    auto const& type_actual = configuration.store().get(address)->visit([](auto& f) -> decltype(auto) { return f.type(); });
    auto const& type_expected = configuration.frame().module().types()[args.type.value()];
    TRAP_IN_LOOP_IF_NOT(type_actual.parameters().size() == type_expected.parameters().size());
    TRAP_IN_LOOP_IF_NOT(type_actual.results().size() == type_expected.results().size());
    TRAP_IN_LOOP_IF_NOT(type_actual.parameters() == type_expected.parameters());
    TRAP_IN_LOOP_IF_NOT(type_actual.results() == type_expected.results());

    dbgln_if(WASM_TRACE_DEBUG, "tail call_indirect({} -> {})", index, address.value());
    switch (auto const outcome = interpreter.call_address(configuration, address, BytecodeInterpreter::CallAddressSource::IndirectTailCall)) {
    default:
        // Some IP we have to continue from.
        current_ip_value = to_underlying(outcome) - 1;
        addresses = { .sources_and_destination = default_sources_and_destination };
        cc = configuration.frame().expression().compiled_instructions.dispatches.data();
        [[fallthrough]];
    case Outcome::Continue:
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
    case Outcome::Return:
        return Outcome::Return;
    }
}

HANDLE_INSTRUCTION(i32_load)
{
    if (interpreter.load_and_push<i32, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load)
{
    if (interpreter.load_and_push<i64, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_load)
{
    if (interpreter.load_and_push<float, float>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_load)
{
    if (interpreter.load_and_push<double, double>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_load8_s)
{
    if (interpreter.load_and_push<i8, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_load8_u)
{
    if (interpreter.load_and_push<u8, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_load16_s)
{
    if (interpreter.load_and_push<i16, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_load16_u)
{
    if (interpreter.load_and_push<u16, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load8_s)
{
    if (interpreter.load_and_push<i8, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load8_u)
{
    if (interpreter.load_and_push<u8, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load16_s)
{
    if (interpreter.load_and_push<i16, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load16_u)
{
    if (interpreter.load_and_push<u16, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load32_s)
{
    if (interpreter.load_and_push<i32, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_load32_u)
{
    if (interpreter.load_and_push<u32, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_store)
{
    if (interpreter.pop_and_store<i32, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_store)
{
    if (interpreter.pop_and_store<i64, i64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_store)
{
    if (interpreter.pop_and_store<float, float>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_store)
{
    if (interpreter.pop_and_store<double, double>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_store8)
{
    if (interpreter.pop_and_store<i32, i8>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_store16)
{
    if (interpreter.pop_and_store<i32, i16>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_store8)
{
    if (interpreter.pop_and_store<i64, i8>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_store16)
{
    if (interpreter.pop_and_store<i64, i16>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_store32)
{
    if (interpreter.pop_and_store<i64, i32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(local_tee)
{
    auto value = configuration.source_value(0, addresses.sources); // bounds checked by verifier.
    auto local_index = instruction->local_index();
    dbgln_if(WASM_TRACE_DEBUG, "stack:peek -> locals({})", local_index.value());
    configuration.frame().locals()[local_index.value()] = value;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(global_get)
{
    auto global_index = instruction->arguments().get<GlobalIndex>();
    // This check here is for const expressions. In non-const expressions,
    // a validation error would have been thrown.
    TRAP_IN_LOOP_IF_NOT(global_index < configuration.frame().module().globals().size());
    auto address = configuration.frame().module().globals()[global_index.value()];
    dbgln_if(WASM_TRACE_DEBUG, "global({}) -> stack", address.value());
    auto global = configuration.store().get(address);
    configuration.push_to_destination(global->value(), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(global_set)
{
    auto global_index = instruction->arguments().get<GlobalIndex>();
    auto address = configuration.frame().module().globals()[global_index.value()];
    // bounds checked by verifier.
    auto value = configuration.take_source(0, addresses.sources);
    dbgln_if(WASM_TRACE_DEBUG, "stack -> global({})", address.value());
    auto global = configuration.store().get(address);
    global->set_value(value);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(memory_size)
{
    auto& args = instruction->arguments().get<Instruction::MemoryIndexArgument>();
    auto address = configuration.frame().module().memories().data()[args.memory_index.value()];
    auto instance = configuration.store().get(address);
    auto pages = instance->size() / Constants::page_size;
    dbgln_if(WASM_TRACE_DEBUG, "memory.size -> stack({})", pages);
    configuration.push_to_destination(Value(static_cast<i32>(pages)), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(memory_grow)
{
    auto& args = instruction->arguments().get<Instruction::MemoryIndexArgument>();
    auto address = configuration.frame().module().memories().data()[args.memory_index.value()];
    auto instance = configuration.store().get(address);
    i32 old_pages = instance->size() / Constants::page_size;
    auto& entry = configuration.source_value(0, addresses.sources); // bounds checked by verifier.
    auto new_pages = entry.to<i32>();
    dbgln_if(WASM_TRACE_DEBUG, "memory.grow({}), previously {} pages...", new_pages, old_pages);
    if (instance->grow(new_pages * Constants::page_size))
        entry = Value(old_pages);
    else
        entry = Value(-1);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(memory_fill)
{
    {
        auto& args = instruction->arguments().get<Instruction::MemoryIndexArgument>();
        auto address = configuration.frame().module().memories().data()[args.memory_index.value()];
        auto instance = configuration.store().get(address);
        // bounds checked by verifier.
        auto const count = configuration.take_source(0, addresses.sources).to<u32>();
        auto const value = static_cast<u8>(configuration.take_source(1, addresses.sources).to<u32>());
        auto const destination_offset = configuration.take_source(2, addresses.sources).to<u32>();

        Checked<u64> checked_end = destination_offset;
        checked_end += count;
        TRAP_IN_LOOP_IF_NOT(!checked_end.has_overflow() && static_cast<size_t>(checked_end.value()) <= instance->data().size());

        if (count == 0)
            TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));

        for (u64 i = 0; i < count; ++i) {
            if (interpreter.store_to_memory(*instance, destination_offset + i, value))
                return Outcome::Return;
        }
    }

    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(memory_copy)
{
    auto& args = instruction->arguments().get<Instruction::MemoryCopyArgs>();
    auto source_address = configuration.frame().module().memories().data()[args.src_index.value()];
    auto destination_address = configuration.frame().module().memories().data()[args.dst_index.value()];
    auto source_instance = configuration.store().get(source_address);
    auto destination_instance = configuration.store().get(destination_address);

    // bounds checked by verifier.
    auto count = configuration.take_source(0, addresses.sources).to<i32>();
    auto source_offset = configuration.take_source(1, addresses.sources).to<i32>();
    auto destination_offset = configuration.take_source(2, addresses.sources).to<i32>();

    Checked<size_t> source_position = source_offset;
    source_position.saturating_add(count);
    Checked<size_t> destination_position = destination_offset;
    destination_position.saturating_add(count);
    TRAP_IN_LOOP_IF_NOT(source_position <= source_instance->data().size());
    TRAP_IN_LOOP_IF_NOT(destination_position <= destination_instance->data().size());

    if (count == 0)
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));

    if (destination_offset <= source_offset) {
        for (auto i = 0; i < count; ++i) {
            auto value = source_instance->data()[source_offset + i];
            if (interpreter.store_to_memory(*destination_instance, destination_offset + i, value))
                return Outcome::Return;
        }
    } else {
        for (auto i = count - 1; i >= 0; --i) {
            auto value = source_instance->data()[source_offset + i];
            if (interpreter.store_to_memory(*destination_instance, destination_offset + i, value))
                return Outcome::Return;
        }
    }

    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(memory_init)
{
    auto& args = instruction->arguments().get<Instruction::MemoryInitArgs>();
    auto& data_address = configuration.frame().module().datas()[args.data_index.value()];
    auto& data = *configuration.store().get(data_address);
    auto memory_address = configuration.frame().module().memories().data()[args.memory_index.value()];
    auto memory = configuration.store().unsafe_get(memory_address);
    // bounds checked by verifier.
    auto count = configuration.take_source(0, addresses.sources).to<u32>();
    auto source_offset = configuration.take_source(1, addresses.sources).to<u32>();
    auto destination_offset = configuration.take_source(2, addresses.sources).to<u32>();

    Checked<size_t> source_position = source_offset;
    source_position.saturating_add(count);
    Checked<size_t> destination_position = destination_offset;
    destination_position.saturating_add(count);
    TRAP_IN_LOOP_IF_NOT(source_position <= data.data().size());
    TRAP_IN_LOOP_IF_NOT(destination_position <= memory->data().size());

    if (count == 0)
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));

    for (size_t i = 0; i < (size_t)count; ++i) {
        auto value = data.data()[source_offset + i];
        if (interpreter.store_to_memory(*memory, destination_offset + i, value))
            return Outcome::Return;
    }
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(data_drop)
{
    auto data_index = instruction->arguments().get<DataIndex>();
    auto data_address = configuration.frame().module().datas()[data_index.value()];
    *configuration.store().get(data_address) = DataInstance({});
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(elem_drop)
{
    auto elem_index = instruction->arguments().get<ElementIndex>();
    auto address = configuration.frame().module().elements()[elem_index.value()];
    auto elem = configuration.store().get(address);
    *configuration.store().get(address) = ElementInstance(elem->type(), {});
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_init)
{
    auto& args = instruction->arguments().get<Instruction::TableElementArgs>();
    auto table_address = configuration.frame().module().tables()[args.table_index.value()];
    auto table = configuration.store().get(table_address);
    auto element_address = configuration.frame().module().elements()[args.element_index.value()];
    auto element = configuration.store().get(element_address);
    // bounds checked by verifier.
    auto count = configuration.take_source(0, addresses.sources).to<u32>();
    auto source_offset = configuration.take_source(1, addresses.sources).to<u32>();
    auto destination_offset = configuration.take_source(2, addresses.sources).to<u32>();

    Checked<u32> checked_source_offset = source_offset;
    Checked<u32> checked_destination_offset = destination_offset;
    checked_source_offset += count;
    checked_destination_offset += count;
    TRAP_IN_LOOP_IF_NOT(!checked_source_offset.has_overflow() && checked_source_offset <= (u32)element->references().size());
    TRAP_IN_LOOP_IF_NOT(!checked_destination_offset.has_overflow() && checked_destination_offset <= (u32)table->elements().size());

    for (u32 i = 0; i < count; ++i)
        table->elements()[destination_offset + i] = element->references()[source_offset + i];
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_copy)
{
    auto& args = instruction->arguments().get<Instruction::TableTableArgs>();
    auto source_address = configuration.frame().module().tables()[args.rhs.value()];
    auto destination_address = configuration.frame().module().tables()[args.lhs.value()];
    auto source_instance = configuration.store().get(source_address);
    auto destination_instance = configuration.store().get(destination_address);

    // bounds checked by verifier.
    auto count = configuration.take_source(0, addresses.sources).to<u32>();
    auto source_offset = configuration.take_source(1, addresses.sources).to<u32>();
    auto destination_offset = configuration.take_source(2, addresses.sources).to<u32>();

    Checked<size_t> source_position = source_offset;
    source_position.saturating_add(count);
    Checked<size_t> destination_position = destination_offset;
    destination_position.saturating_add(count);
    TRAP_IN_LOOP_IF_NOT(source_position <= source_instance->elements().size());
    TRAP_IN_LOOP_IF_NOT(destination_position <= destination_instance->elements().size());

    if (count == 0)
        TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));

    if (destination_offset <= source_offset) {
        for (u32 i = 0; i < count; ++i) {
            auto value = source_instance->elements()[source_offset + i];
            destination_instance->elements()[destination_offset + i] = value;
        }
    } else {
        for (u32 i = count - 1; i != NumericLimits<u32>::max(); --i) {
            auto value = source_instance->elements()[source_offset + i];
            destination_instance->elements()[destination_offset + i] = value;
        }
    }

    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_fill)
{
    auto table_index = instruction->arguments().get<TableIndex>();
    auto address = configuration.frame().module().tables()[table_index.value()];
    auto table = configuration.store().get(address);
    // bounds checked by verifier.
    auto count = configuration.take_source(0, addresses.sources).to<u32>();
    auto value = configuration.take_source(1, addresses.sources);
    auto start = configuration.take_source(2, addresses.sources).to<u32>();

    Checked<u32> checked_offset = start;
    checked_offset += count;
    TRAP_IN_LOOP_IF_NOT(!checked_offset.has_overflow() && checked_offset <= (u32)table->elements().size());

    for (u32 i = 0; i < count; ++i)
        table->elements()[start + i] = value.to<Reference>();
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_set)
{
    // bounds checked by verifier.
    auto ref = configuration.take_source(0, addresses.sources);
    auto index = (size_t)(configuration.take_source(1, addresses.sources).to<i32>());
    auto table_index = instruction->arguments().get<TableIndex>();
    auto address = configuration.frame().module().tables()[table_index.value()];
    auto table = configuration.store().get(address);
    TRAP_IN_LOOP_IF_NOT(index < table->elements().size());
    table->elements()[index] = ref.to<Reference>();
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_get)
{
    // bounds checked by verifier.
    auto& index_value = configuration.source_value(0, addresses.sources);
    auto index = static_cast<size_t>(index_value.to<i32>());
    auto table_index = instruction->arguments().get<TableIndex>();
    auto address = configuration.frame().module().tables()[table_index.value()];
    auto table = configuration.store().get(address);
    TRAP_IN_LOOP_IF_NOT(index < table->elements().size());
    index_value = Value(table->elements()[index]);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_grow)
{
    // bounds checked by verifier.
    auto size = configuration.take_source(0, addresses.sources).to<u32>();
    auto fill_value = configuration.take_source(1, addresses.sources);
    auto table_index = instruction->arguments().get<TableIndex>();
    auto address = configuration.frame().module().tables()[table_index.value()];
    auto table = configuration.store().get(address);
    auto previous_size = table->elements().size();
    auto did_grow = table->grow(size, fill_value.to<Reference>());
    if (!did_grow) {
        configuration.push_to_destination(Value(-1), addresses.destination);
    } else {
        configuration.push_to_destination(Value(static_cast<i32>(previous_size)), addresses.destination);
    }
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(table_size)
{
    auto table_index = instruction->arguments().get<TableIndex>();
    auto address = configuration.frame().module().tables()[table_index.value()];
    auto table = configuration.store().get(address);
    configuration.push_to_destination(Value(static_cast<i32>(table->elements().size())), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(ref_null)
{
    auto type = instruction->arguments().get<ValueType>();
    configuration.push_to_destination(Value(Reference(Reference::Null { type })), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(ref_func)
{
    auto index = instruction->arguments().get<FunctionIndex>().value();
    auto& functions = configuration.frame().module().functions();
    auto address = functions[index];
    configuration.push_to_destination(Value(Reference { Reference::Func { address, configuration.store().get_module_for(address) } }), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(ref_is_null)
{
    // bounds checked by verifier.
    auto ref = configuration.take_source(0, addresses.sources);
    configuration.push_to_destination(Value(static_cast<i32>(ref.to<Reference>().ref().has<Reference::Null>() ? 1 : 0)), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(drop)
{
    // bounds checked by verifier.
    configuration.take_source(0, addresses.sources);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(select)
{
    // Note: The type seems to only be used for validation.
    auto value = configuration.take_source(0, addresses.sources).to<i32>(); // bounds checked by verifier.
    dbgln_if(WASM_TRACE_DEBUG, "select({})", value);
    auto rhs = configuration.take_source(1, addresses.sources);
    auto& lhs = configuration.source_value(2, addresses.sources); // bounds checked by verifier.
    lhs = value != 0 ? lhs : rhs;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(select_typed)
{
    // Note: The type seems to only be used for validation.
    auto value = configuration.take_source(0, addresses.sources).to<i32>(); // bounds checked by verifier.
    dbgln_if(WASM_TRACE_DEBUG, "select({})", value);
    auto rhs = configuration.take_source(1, addresses.sources);
    auto& lhs = configuration.source_value(2, addresses.sources); // bounds checked by verifier.
    lhs = value != 0 ? lhs : rhs;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_eqz)
{
    if (interpreter.unary_operation<i32, i32, Operators::EqualsZero>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_eq)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::Equals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_ne)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::NotEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_lts)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::LessThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_ltu)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::LessThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_gts)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::GreaterThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_gtu)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::GreaterThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_les)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::LessThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_leu)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::LessThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_ges)
{
    if (interpreter.binary_numeric_operation<i32, i32, Operators::GreaterThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32_geu)
{
    if (interpreter.binary_numeric_operation<u32, i32, Operators::GreaterThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_eqz)
{
    if (interpreter.unary_operation<i64, i32, Operators::EqualsZero>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_eq)
{
    if (interpreter.binary_numeric_operation<i64, i32, Operators::Equals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_ne)
{
    if (interpreter.binary_numeric_operation<i64, i32, Operators::NotEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_lts)
{
    if (interpreter.binary_numeric_operation<i64, i32, Operators::LessThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_ltu)
{
    if (interpreter.binary_numeric_operation<u64, i32, Operators::LessThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_gts)
{
    if (interpreter.binary_numeric_operation<i64, i32, Operators::GreaterThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_gtu)
{
    if (interpreter.binary_numeric_operation<u64, i32, Operators::GreaterThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_les)
{
    if (interpreter.binary_numeric_operation<i64, i32, Operators::LessThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_leu)
{
    if (interpreter.binary_numeric_operation<u64, i32, Operators::LessThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_ges)
{
    if (interpreter.binary_numeric_operation<i64, i32, Operators::GreaterThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64_geu)
{
    if (interpreter.binary_numeric_operation<u64, i32, Operators::GreaterThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_eq)
{
    if (interpreter.binary_numeric_operation<float, i32, Operators::Equals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_ne)
{
    if (interpreter.binary_numeric_operation<float, i32, Operators::NotEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_lt)
{
    if (interpreter.binary_numeric_operation<float, i32, Operators::LessThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_gt)
{
    if (interpreter.binary_numeric_operation<float, i32, Operators::GreaterThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_le)
{
    if (interpreter.binary_numeric_operation<float, i32, Operators::LessThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32_ge)
{
    if (interpreter.binary_numeric_operation<float, i32, Operators::GreaterThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_eq)
{
    if (interpreter.binary_numeric_operation<double, i32, Operators::Equals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_ne)
{
    if (interpreter.binary_numeric_operation<double, i32, Operators::NotEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_lt)
{
    if (interpreter.binary_numeric_operation<double, i32, Operators::LessThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_gt)
{
    if (interpreter.binary_numeric_operation<double, i32, Operators::GreaterThan>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64_le)
{
    if (interpreter.binary_numeric_operation<double, i32, Operators::LessThanOrEquals>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extmul_high_i16x8_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<4, Operators::Multiply, Operators::VectorExt::High, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extmul_low_i16x8_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<4, Operators::Multiply, Operators::VectorExt::Low, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_eq)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<2, Operators::Equals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_ne)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<2, Operators::NotEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_lt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<2, Operators::LessThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_gt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<2, Operators::GreaterThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_le_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<2, Operators::LessThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_ge_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<2, Operators::GreaterThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_abs)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<2, Operators::Absolute>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_neg)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<2, Operators::Negate, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_all_true)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorAllTrue<2>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_add)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<2, Operators::Add, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_sub)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<2, Operators::Subtract, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_mul)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<2, Operators::Multiply, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extend_low_i32x4_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<2, Operators::VectorExt::Low, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extend_high_i32x4_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<2, Operators::VectorExt::High, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extend_low_i32x4_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<2, Operators::VectorExt::Low, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extend_high_i32x4_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<2, Operators::VectorExt::High, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extmul_low_i32x4_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<2, Operators::Multiply, Operators::VectorExt::Low, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extmul_high_i32x4_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<2, Operators::Multiply, Operators::VectorExt::High, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extmul_low_i32x4_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<2, Operators::Multiply, Operators::VectorExt::Low, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extmul_high_i32x4_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<2, Operators::Multiply, Operators::VectorExt::High, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_eq)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<4, Operators::Equals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_ne)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<4, Operators::NotEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_lt)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<4, Operators::LessThan>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_gt)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<4, Operators::GreaterThan>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_le)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<4, Operators::LessThanOrEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_ge)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<4, Operators::GreaterThanOrEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_min)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::Minimum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_max)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::Maximum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_eq)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<2, Operators::Equals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_ne)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<2, Operators::NotEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_lt)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<2, Operators::LessThan>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_gt)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<2, Operators::GreaterThan>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_le)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<2, Operators::LessThanOrEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_ge)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatCmpOp<2, Operators::GreaterThanOrEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_min)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::Minimum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_max)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::Maximum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_div)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::Divide>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_mul)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::Multiply>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_sub)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::Subtract>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_add)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::Add>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_pmin)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::PseudoMinimum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_pmax)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<4, Operators::PseudoMaximum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_div)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::Divide>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_mul)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::Multiply>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_sub)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::Subtract>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_add)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::Add>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_pmin)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::PseudoMinimum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_pmax)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorFloatBinaryOp<2, Operators::PseudoMaximum>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_ceil)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::Ceil>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_floor)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::Floor>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_trunc)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::Truncate>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_nearest)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::NearbyIntegral>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_sqrt)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::SquareRoot>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_neg)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::Negate>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_abs)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<4, Operators::Absolute>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_ceil)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::Ceil>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_floor)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::Floor>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_trunc)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::Truncate>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_nearest)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::NearbyIntegral>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_sqrt)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::SquareRoot>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_neg)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::Negate>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_abs)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorFloatUnaryOp<2, Operators::Absolute>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_and)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::BitAnd>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_or)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::BitOr>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_xor)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::BitXor>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_not)
{
    if (interpreter.unary_operation<u128, u128, Operators::BitNot>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_andnot)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::BitAndNot>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_bitselect)
{
    // bounds checked by verifier.
    auto mask = configuration.take_source(0, addresses.sources).to<u128>();
    auto false_vector = configuration.take_source(1, addresses.sources).to<u128>();
    auto true_vector = configuration.take_source(2, addresses.sources).to<u128>();
    u128 result = (true_vector & mask) | (false_vector & ~mask);
    configuration.push_to_destination(Value(result), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_any_true)
{
    auto vector = configuration.take_source(0, addresses.sources).to<u128>(); // bounds checked by verifier.
    configuration.push_to_destination(Value(static_cast<i32>(vector != 0)), addresses.destination);
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load8_lane)
{
    if (interpreter.load_and_push_lane_n<8>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load16_lane)
{
    if (interpreter.load_and_push_lane_n<16>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load32_lane)
{
    if (interpreter.load_and_push_lane_n<32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load64_lane)
{
    if (interpreter.load_and_push_lane_n<64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load32_zero)
{
    if (interpreter.load_and_push_zero_n<32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_load64_zero)
{
    if (interpreter.load_and_push_zero_n<64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_store8_lane)
{
    if (interpreter.pop_and_store_lane_n<8>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_store16_lane)
{
    if (interpreter.pop_and_store_lane_n<16>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_store32_lane)
{
    if (interpreter.pop_and_store_lane_n<32>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(v128_store64_lane)
{
    if (interpreter.pop_and_store_lane_n<64>(configuration, *instruction, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_trunc_sat_f32x4_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 4, u32, f32, Operators::SaturatingTruncate<i32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_trunc_sat_f32x4_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 4, u32, f32, Operators::SaturatingTruncate<u32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_bitmask)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorBitmask<16>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_bitmask)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorBitmask<8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_bitmask)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorBitmask<4>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_bitmask)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorBitmask<2>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_dot_i16x8_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorDotProduct<4>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_narrow_i16x8_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorNarrow<16, i8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_narrow_i16x8_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorNarrow<16, u8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_narrow_i32x4_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorNarrow<8, i16>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_narrow_i32x4_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorNarrow<8, u16>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_q15mulr_sat_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::SaturatingOp<i16, Operators::Q15Mul>, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_convert_i32x4_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 4, u32, i32, Operators::Convert<f32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_convert_i32x4_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 4, u32, u32, Operators::Convert<f32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_convert_low_i32x4_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<2, 4, u64, i32, Operators::Convert<f64>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_convert_low_i32x4_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<2, 4, u64, u32, Operators::Convert<f64>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_demote_f64x2_zero)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 2, u32, f64, Operators::Convert<f32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_promote_low_f32x4)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<2, 4, u64, f32, Operators::Convert<f64>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_trunc_sat_f64x2_s_zero)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 2, u32, f64, Operators::SaturatingTruncate<i32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_trunc_sat_f64x2_u_zero)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorConvertOp<4, 2, u32, f64, Operators::SaturatingTruncate<u32>>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}
HANDLE_INSTRUCTION(i8x16_shl)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftLeft<16>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_shr_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<16, MakeUnsigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_shr_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<16, MakeSigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_shl)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftLeft<8>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_shr_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<8, MakeUnsigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_shr_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<8, MakeSigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_shl)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftLeft<4>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_shr_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<4, MakeUnsigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_shr_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<4, MakeSigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_shl)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftLeft<2>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_shr_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<2, MakeUnsigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_shr_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorShiftRight<2, MakeSigned>, i32>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_swizzle)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorSwizzle>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_extract_lane_s)
{
    if (interpreter.unary_operation<u128, i8, Operators::VectorExtractLane<16, MakeSigned>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_extract_lane_u)
{
    if (interpreter.unary_operation<u128, u8, Operators::VectorExtractLane<16, MakeUnsigned>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extract_lane_s)
{
    if (interpreter.unary_operation<u128, i16, Operators::VectorExtractLane<8, MakeSigned>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extract_lane_u)
{
    if (interpreter.unary_operation<u128, u16, Operators::VectorExtractLane<8, MakeUnsigned>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extract_lane)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorExtractLane<4, MakeSigned>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_extract_lane)
{
    if (interpreter.unary_operation<u128, i64, Operators::VectorExtractLane<2, MakeSigned>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_extract_lane)
{
    if (interpreter.unary_operation<u128, float, Operators::VectorExtractLaneFloat<4>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_extract_lane)
{
    if (interpreter.unary_operation<u128, double, Operators::VectorExtractLaneFloat<2>>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_replace_lane)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorReplaceLane<16, i32>, i32>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_replace_lane)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorReplaceLane<8, i32>, i32>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_replace_lane)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorReplaceLane<4>, i32>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i64x2_replace_lane)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorReplaceLane<2>, i64>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_replace_lane)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorReplaceLane<4, float>, float>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_replace_lane)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorReplaceLane<2, double>, double>(configuration, addresses, instruction->arguments().get<Instruction::LaneIndex>().lane))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_eq)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::Equals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_ne)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::NotEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_lt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::LessThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_lt_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::LessThan, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_gt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::GreaterThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_gt_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::GreaterThan, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_le_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::LessThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_le_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::LessThanOrEquals, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_ge_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::GreaterThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_ge_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<16, Operators::GreaterThanOrEquals, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_abs)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<16, Operators::Absolute>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_neg)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<16, Operators::Negate>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_all_true)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorAllTrue<16>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_popcnt)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<16, Operators::PopCount>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_add)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Add>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_sub)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Subtract>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_avgr_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Average, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_add_sat_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::SaturatingOp<i8, Operators::Add>, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_add_sat_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::SaturatingOp<u8, Operators::Add>, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_sub_sat_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::SaturatingOp<i8, Operators::Subtract>, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_sub_sat_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::SaturatingOp<u8, Operators::Subtract>, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_min_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Minimum, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_min_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Minimum, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_max_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Maximum, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i8x16_max_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<16, Operators::Maximum, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_eq)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::Equals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_ne)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::NotEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_lt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::LessThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_lt_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::LessThan, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_gt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::GreaterThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_gt_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::GreaterThan, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_le_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::LessThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_le_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::LessThanOrEquals, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_ge_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::GreaterThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_ge_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<8, Operators::GreaterThanOrEquals, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_abs)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<8, Operators::Absolute>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_neg)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<8, Operators::Negate>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_all_true)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorAllTrue<8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_add)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Add>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_sub)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Subtract>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_mul)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Multiply>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_avgr_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Average, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_add_sat_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::SaturatingOp<i16, Operators::Add>, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_add_sat_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::SaturatingOp<u16, Operators::Add>, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_sub_sat_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::SaturatingOp<i16, Operators::Subtract>, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_sub_sat_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::SaturatingOp<u16, Operators::Subtract>, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_min_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Minimum, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_min_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Minimum, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_max_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Maximum, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_max_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<8, Operators::Maximum, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extend_low_i8x16_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<8, Operators::VectorExt::Low, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extend_high_i8x16_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<8, Operators::VectorExt::High, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extend_low_i8x16_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<8, Operators::VectorExt::Low, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extend_high_i8x16_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<8, Operators::VectorExt::High, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extadd_pairwise_i8x16_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExtOpPairwise<8, Operators::Add, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extadd_pairwise_i8x16_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExtOpPairwise<8, Operators::Add, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extmul_low_i8x16_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<8, Operators::Multiply, Operators::VectorExt::Low, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extmul_high_i8x16_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<8, Operators::Multiply, Operators::VectorExt::High, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extmul_low_i8x16_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<8, Operators::Multiply, Operators::VectorExt::Low, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i16x8_extmul_high_i8x16_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<8, Operators::Multiply, Operators::VectorExt::High, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_eq)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::Equals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_ne)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::NotEquals>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_lt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::LessThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_lt_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::LessThan, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_gt_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::GreaterThan, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_gt_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::GreaterThan, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_le_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::LessThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_le_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::LessThanOrEquals, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_ge_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::GreaterThanOrEquals, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_ge_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorCmpOp<4, Operators::GreaterThanOrEquals, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_abs)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<4, Operators::Absolute>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_neg)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerUnaryOp<4, Operators::Negate, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_all_true)
{
    if (interpreter.unary_operation<u128, i32, Operators::VectorAllTrue<4>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_add)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Add, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_sub)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Subtract, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_mul)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Multiply, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_min_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Minimum, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_min_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Minimum, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_max_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Maximum, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_max_u)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerBinaryOp<4, Operators::Maximum, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extend_low_i16x8_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<4, Operators::VectorExt::Low, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extend_high_i16x8_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<4, Operators::VectorExt::High, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extend_low_i16x8_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<4, Operators::VectorExt::Low, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extend_high_i16x8_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExt<4, Operators::VectorExt::High, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extadd_pairwise_i16x8_s)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExtOpPairwise<4, Operators::Add, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extadd_pairwise_i16x8_u)
{
    if (interpreter.unary_operation<u128, u128, Operators::VectorIntegerExtOpPairwise<4, Operators::Add, MakeUnsigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extmul_low_i16x8_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<4, Operators::Multiply, Operators::VectorExt::Low, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_extmul_high_i16x8_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorIntegerExtOp<4, Operators::Multiply, Operators::VectorExt::High, MakeSigned>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

ALIAS_INSTRUCTION(i8x16_relaxed_swizzle, i8x16_swizzle)
ALIAS_INSTRUCTION(i32x4_relaxed_trunc_f32x4_s, i32x4_trunc_sat_f32x4_s)
ALIAS_INSTRUCTION(i32x4_relaxed_trunc_f32x4_u, i32x4_trunc_sat_f32x4_u)
ALIAS_INSTRUCTION(i32x4_relaxed_trunc_f64x2_s_zero, i32x4_trunc_sat_f64x2_s_zero)
ALIAS_INSTRUCTION(i32x4_relaxed_trunc_f64x2_u_zero, i32x4_trunc_sat_f64x2_u_zero)

HANDLE_INSTRUCTION(f32x4_relaxed_madd)
{
    auto a = configuration.take_source(0, addresses.sources).to<u128>();
    auto b = configuration.take_source(1, addresses.sources).to<u128>();
    auto& c_slot = configuration.source_value(2, addresses.sources);
    auto c = c_slot.to<u128>();
    c_slot = Value { Operators::VectorMultiplyAdd<4> {}(a, b, c) };
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f32x4_relaxed_nmadd)
{
    auto a = configuration.take_source(0, addresses.sources).to<u128>();
    auto b = configuration.take_source(1, addresses.sources).to<u128>();
    auto& c_slot = configuration.source_value(2, addresses.sources);
    auto c = c_slot.to<u128>();
    c_slot = Value { Operators::VectorMultiplySub<4> {}(a, b, c) };
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_relaxed_madd)
{
    auto a = configuration.take_source(0, addresses.sources).to<u128>();
    auto b = configuration.take_source(1, addresses.sources).to<u128>();
    auto& c_slot = configuration.source_value(2, addresses.sources);
    auto c = c_slot.to<u128>();
    c_slot = Value { Operators::VectorMultiplyAdd<2> {}(a, b, c) };
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(f64x2_relaxed_nmadd)
{
    auto a = configuration.take_source(0, addresses.sources).to<u128>();
    auto b = configuration.take_source(1, addresses.sources).to<u128>();
    auto& c_slot = configuration.source_value(2, addresses.sources);
    auto c = c_slot.to<u128>();
    c_slot = Value { Operators::VectorMultiplySub<2> {}(a, b, c) };
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

ALIAS_INSTRUCTION(i8x16_relaxed_laneselect, v128_bitselect)
ALIAS_INSTRUCTION(i16x8_relaxed_laneselect, v128_bitselect)
ALIAS_INSTRUCTION(i32x4_relaxed_laneselect, v128_bitselect)
ALIAS_INSTRUCTION(i64x2_relaxed_laneselect, v128_bitselect)
ALIAS_INSTRUCTION(f32x4_relaxed_min, f32x4_min)
ALIAS_INSTRUCTION(f32x4_relaxed_max, f32x4_max)
ALIAS_INSTRUCTION(f64x2_relaxed_min, f64x2_min)
ALIAS_INSTRUCTION(f64x2_relaxed_max, f64x2_max)
ALIAS_INSTRUCTION(i16x8_relaxed_q15mulr_s, i16x8_q15mulr_sat_s)

HANDLE_INSTRUCTION(i16x8_relaxed_dot_i8x16_i7x16_s)
{
    if (interpreter.binary_numeric_operation<u128, u128, Operators::VectorDotProduct<8>>(configuration, addresses))
        return Outcome::Return;
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(i32x4_relaxed_dot_i8x16_i7x16_add_s)
{
    // do i16x8 dot first, then fold back down to i32, then do the final component add.
    auto rhs = configuration.take_source(0, addresses.sources).to<u128>();
    auto lhs = configuration.take_source(1, addresses.sources).to<u128>(); // bounds checked by verifier.
    auto result = Operators::VectorDotProduct<4, Operators::VectorIntegerExtOpPairwise<4, Operators::Add>> {}(lhs, rhs);
    auto& c_slot = configuration.source_value(2, addresses.sources);
    c_slot = Value { Operators::VectorIntegerBinaryOp<4, Operators::Add, MakeSigned> {}(result, c_slot.to<u128>()) };
    TAILCALL return continue_(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(throw_ref)
{
    interpreter.set_trap("Not Implemented: Proposal 'Exception-handling'"sv);
    return Outcome::Return;
}

HANDLE_INSTRUCTION(throw_)
{
    {
        auto tag_address = configuration.frame().module().tags()[instruction->arguments().get<TagIndex>().value()];
        auto& tag_instance = *configuration.store().get(tag_address);
        auto& type = tag_instance.type();
        auto values = Vector<Value>(configuration.value_stack().span().slice_from_end(type.parameters().size()));
        configuration.value_stack().shrink(configuration.value_stack().size() - type.parameters().size());
        auto exception_address = configuration.store().allocate(tag_instance, move(values));
        if (!exception_address.has_value()) {
            interpreter.set_trap("Out of memory"sv);
            return Outcome::Return;
        }
        configuration.value_stack().append(Value(Reference { Reference::Exception { *exception_address } }));
    }
    TAILCALL return InstructionHandler<Instructions::throw_ref.value()>::operator()<HasDynamicInsnLimit, Continue>(HANDLER_PARAMS(DECOMPOSE_PARAMS_NAME_ONLY));
}

HANDLE_INSTRUCTION(try_table)
{
    interpreter.set_trap("Not Implemented: Proposal 'Exception-handling'"sv);
    return Outcome::Return;
}

template<u64 opcode, bool HasDynamicInsnLimit, typename Continue, typename... Args>
constexpr static auto handle_instruction(Args&&... a)
{
    return InstructionHandler<opcode>::template operator()<HasDynamicInsnLimit, Continue>(forward<Args>(a)...);
}

template<bool HasCompiledList, bool HasDynamicInsnLimit, bool HaveDirectThreadingInfo>
FLATTEN void BytecodeInterpreter::interpret_impl(Configuration& configuration, Expression const& expression)
{
    auto& instructions = expression.instructions();
    auto current_ip_value = configuration.ip();
    u64 executed_instructions = 0;

    SourcesAndDestination addresses { .sources_and_destination = default_sources_and_destination };

    auto cc = expression.compiled_instructions.dispatches.data();

    if constexpr (HaveDirectThreadingInfo) {
        static_assert(HasCompiledList, "Direct threading requires a compiled instruction list");
        addresses.sources_and_destination = cc[current_ip_value].sources_and_destination;
        auto const instruction = cc[current_ip_value].instruction;
        auto const handler = bit_cast<Outcome (*)(HANDLER_PARAMS(DECOMPOSE_PARAMS_TYPE_ONLY))>(cc[current_ip_value].handler_ptr);
        handler(*this, configuration, instruction, addresses, current_ip_value, cc);
        return;
    }

    while (true) {
        if constexpr (HasDynamicInsnLimit) {
            if (executed_instructions++ >= Constants::max_allowed_executed_instructions_per_call) [[unlikely]] {
                m_trap = Trap::from_string("Exceeded maximum allowed number of instructions");
                return;
            }
        }
        // bounds checked by loop condition.
        addresses.sources_and_destination = HasCompiledList
            ? cc[current_ip_value].sources_and_destination
            : default_sources_and_destination;
        auto const instruction = HasCompiledList
            ? cc[current_ip_value].instruction
            : &instructions.data()[current_ip_value];
        auto const opcode = (HasCompiledList && !HaveDirectThreadingInfo
                ? cc[current_ip_value].instruction_opcode
                : instruction->opcode())
                                .value();

#define RUN_NEXT_INSTRUCTION() \
    {                          \
        ++current_ip_value;    \
        break;                 \
    }

#define HANDLE_INSTRUCTION_NEW(name, ...)                                                                                                                             \
    case Instructions::name.value(): {                                                                                                                                \
        auto outcome = handle_instruction<Instructions::name.value(), HasDynamicInsnLimit, Skip>(*this, configuration, instruction, addresses, current_ip_value, cc); \
        if (outcome == Outcome::Return)                                                                                                                               \
            return;                                                                                                                                                   \
        current_ip_value = to_underlying(outcome);                                                                                                                    \
        if constexpr (Instructions::name == Instructions::return_call || Instructions::name == Instructions::return_call_indirect)                                    \
            cc = configuration.frame().expression().compiled_instructions.dispatches.data();                                                                          \
        RUN_NEXT_INSTRUCTION();                                                                                                                                       \
    }

        dbgln_if(WASM_TRACE_DEBUG, "Executing instruction {} at current_ip_value {}", instruction_name(instruction->opcode()), current_ip_value);
        if ((opcode & Instructions::SyntheticInstructionBase.value()) != Instructions::SyntheticInstructionBase.value())
            __builtin_prefetch(&instruction->arguments(), /* read */ 0, /* low temporal locality */ 1);

        switch (opcode) {
            ENUMERATE_WASM_OPCODES(HANDLE_INSTRUCTION_NEW)
        default:
            dbgln("Bad opcode {} in insn {} (ip {})", opcode, instruction_name(instruction->opcode()), current_ip_value);
            VERIFY_NOT_REACHED();
        }
    }
}

InstructionPointer BytecodeInterpreter::branch_to_label(Configuration& configuration, LabelIndex index)
{
    dbgln_if(WASM_TRACE_DEBUG, "Branch to label with index {}...", index.value());
    auto& label_stack = configuration.label_stack();
    label_stack.shrink(label_stack.size() - index.value(), true);
    auto label = configuration.label_stack().last();
    dbgln_if(WASM_TRACE_DEBUG, "...which is actually IP {}, and has {} result(s)", label.continuation().value(), label.arity());

    configuration.value_stack().remove(label.stack_height(), configuration.value_stack().size() - label.stack_height() - label.arity());
    return label.continuation().value() - 1;
}

template<typename ReadType, typename PushType>
bool BytecodeInterpreter::load_and_push(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    auto& arg = instruction.arguments().get<Instruction::MemoryArgument>();
    auto& address = configuration.frame().module().memories()[arg.memory_index.value()];
    auto memory = configuration.store().get(address);
    auto& entry = configuration.source_value(0, addresses.sources); // bounds checked by verifier.
    auto base = entry.to<i32>();
    u64 instance_address = static_cast<u64>(bit_cast<u32>(base)) + arg.offset;
    if (instance_address + sizeof(ReadType) > memory->size()) {
        m_trap = Trap::from_string("Memory access out of bounds");
        dbgln_if(WASM_TRACE_DEBUG, "LibWasm: Memory access out of bounds (expected {} to be less than or equal to {})", instance_address + sizeof(ReadType), memory->size());
        return true;
    }
    dbgln_if(WASM_TRACE_DEBUG, "load({} : {}) -> stack", instance_address, sizeof(ReadType));
    auto slice = memory->data().bytes().slice(instance_address, sizeof(ReadType));
    entry = Value(static_cast<PushType>(read_value<ReadType>(slice)));
    return false;
}

template<typename TDst, typename TSrc>
ALWAYS_INLINE static TDst convert_vector(TSrc v)
{
    return __builtin_convertvector(v, TDst);
}

template<size_t M, size_t N, template<typename> typename SetSign>
bool BytecodeInterpreter::load_and_push_mxn(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    auto& arg = instruction.arguments().get<Instruction::MemoryArgument>();
    auto& address = configuration.frame().module().memories()[arg.memory_index.value()];
    auto memory = configuration.store().get(address);
    auto& entry = configuration.source_value(0, addresses.sources); // bounds checked by verifier.
    auto base = entry.to<i32>();
    u64 instance_address = static_cast<u64>(bit_cast<u32>(base)) + arg.offset;
    if (instance_address + M * N / 8 > memory->size()) {
        m_trap = Trap::from_string("Memory access out of bounds");
        dbgln_if(WASM_TRACE_DEBUG, "LibWasm: Memory access out of bounds (expected {} to be less than or equal to {})", instance_address + M * N / 8, memory->size());
        return true;
    }
    dbgln_if(WASM_TRACE_DEBUG, "vec-load({} : {}) -> stack", instance_address, M * N / 8);
    auto slice = memory->data().bytes().slice(instance_address, M * N / 8);
    using V64 = NativeVectorType<M, N, SetSign>;
    using V128 = NativeVectorType<M * 2, N, SetSign>;

    V64 bytes { 0 };
    if (bit_cast<FlatPtr>(slice.data()) % sizeof(V64) == 0)
        bytes = *bit_cast<V64*>(slice.data());
    else
        ByteReader::load(slice.data(), bytes);

    entry = Value(bit_cast<u128>(convert_vector<V128>(bytes)));
    return false;
}

template<size_t N>
bool BytecodeInterpreter::load_and_push_lane_n(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    auto memarg_and_lane = instruction.arguments().get<Instruction::MemoryAndLaneArgument>();
    auto& address = configuration.frame().module().memories()[memarg_and_lane.memory.memory_index.value()];
    auto memory = configuration.store().get(address);
    // bounds checked by verifier.
    auto vector = configuration.take_source(0, addresses.sources).to<u128>();
    auto base = configuration.take_source(1, addresses.sources).to<u32>();
    u64 instance_address = static_cast<u64>(bit_cast<u32>(base)) + memarg_and_lane.memory.offset;
    if (instance_address + N / 8 > memory->size()) {
        m_trap = Trap::from_string("Memory access out of bounds");
        return true;
    }
    auto slice = memory->data().bytes().slice(instance_address, N / 8);
    auto dst = bit_cast<u8*>(&vector) + memarg_and_lane.lane * N / 8;
    memcpy(dst, slice.data(), N / 8);
    configuration.push_to_destination(Value(vector), addresses.destination);
    return false;
}

template<size_t N>
bool BytecodeInterpreter::load_and_push_zero_n(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    auto memarg_and_lane = instruction.arguments().get<Instruction::MemoryArgument>();
    auto& address = configuration.frame().module().memories()[memarg_and_lane.memory_index.value()];
    auto memory = configuration.store().get(address);
    // bounds checked by verifier.
    auto base = configuration.take_source(0, addresses.sources).to<u32>();
    u64 instance_address = static_cast<u64>(bit_cast<u32>(base)) + memarg_and_lane.offset;
    if (instance_address + N / 8 > memory->size()) {
        m_trap = Trap::from_string("Memory access out of bounds");
        return true;
    }
    auto slice = memory->data().bytes().slice(instance_address, N / 8);
    u128 vector = 0;
    memcpy(&vector, slice.data(), N / 8);
    configuration.push_to_destination(Value(vector), addresses.destination);
    return false;
}

template<size_t M>
bool BytecodeInterpreter::load_and_push_m_splat(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    auto& arg = instruction.arguments().get<Instruction::MemoryArgument>();
    auto& address = configuration.frame().module().memories()[arg.memory_index.value()];
    auto memory = configuration.store().get(address);
    auto& entry = configuration.source_value(0, addresses.sources); // bounds checked by verifier.
    auto base = entry.to<i32>();
    u64 instance_address = static_cast<u64>(bit_cast<u32>(base)) + arg.offset;
    if (instance_address + M / 8 > memory->size()) {
        m_trap = Trap::from_string("Memory access out of bounds");
        dbgln_if(WASM_TRACE_DEBUG, "LibWasm: Memory access out of bounds (expected {} to be less than or equal to {})", instance_address + M / 8, memory->size());
        return true;
    }
    dbgln_if(WASM_TRACE_DEBUG, "vec-splat({} : {}) -> stack", instance_address, M / 8);
    auto slice = memory->data().bytes().slice(instance_address, M / 8);
    auto value = read_value<NativeIntegralType<M>>(slice);
    set_top_m_splat<M, NativeIntegralType>(configuration, value, addresses);
    return false;
}

template<size_t M, template<size_t> typename NativeType>
void BytecodeInterpreter::set_top_m_splat(Wasm::Configuration& configuration, NativeType<M> value, SourcesAndDestination const& addresses)
{
    auto push = [&](auto result) {
        configuration.source_value(0, addresses.sources) = Value(bit_cast<u128>(result));
    };

    if constexpr (IsFloatingPoint<NativeType<32>>) {
        if constexpr (M == 32) // 32 -> 32x4
            push(expand4(value));
        else if constexpr (M == 64) // 64 -> 64x2
            push(f64x2 { value, value });
        else
            static_assert(DependentFalse<NativeType<M>>, "Invalid vector size");
    } else {
        if constexpr (M == 8) // 8 -> 8x4 -> 32x4
            push(expand4(bit_cast<u32>(u8x4 { value, value, value, value })));
        else if constexpr (M == 16) // 16 -> 16x2 -> 32x4
            push(expand4(bit_cast<u32>(u16x2 { value, value })));
        else if constexpr (M == 32) // 32 -> 32x4
            push(expand4(value));
        else if constexpr (M == 64) // 64 -> 64x2
            push(u64x2 { value, value });
        else
            static_assert(DependentFalse<NativeType<M>>, "Invalid vector size");
    }
}

template<size_t M, template<size_t> typename NativeType>
void BytecodeInterpreter::pop_and_push_m_splat(Wasm::Configuration& configuration, Instruction const&, SourcesAndDestination const& addresses)
{
    using PopT = Conditional<M <= 32, NativeType<32>, NativeType<64>>;
    using ReadT = NativeType<M>;
    auto entry = configuration.source_value(0, addresses.sources);
    auto value = static_cast<ReadT>(entry.to<PopT>());
    dbgln_if(WASM_TRACE_DEBUG, "stack({}) -> splat({})", value, M);
    set_top_m_splat<M, NativeType>(configuration, value, addresses);
}

template<typename M, template<typename> typename SetSign, typename VectorType>
VectorType BytecodeInterpreter::pop_vector(Configuration& configuration, size_t source, SourcesAndDestination const& addresses)
{
    // bounds checked by verifier.
    return bit_cast<VectorType>(configuration.take_source(source, addresses.sources).to<u128>());
}

Outcome BytecodeInterpreter::call_address(Configuration& configuration, FunctionAddress address, CallAddressSource source)
{
    TRAP_IF_NOT(m_stack_info.size_free() >= Constants::minimum_stack_space_to_keep_free, "{}: {}", Constants::stack_exhaustion_message);

    auto instance = configuration.store().get(address);
    FunctionType const* type { nullptr };
    instance->visit([&](auto const& function) { type = &function.type(); });
    if (source == CallAddressSource::IndirectCall || source == CallAddressSource::IndirectTailCall) {
        TRAP_IF_NOT(type->parameters().size() <= configuration.value_stack().size());
    }
    Vector<Value> args;
    if (!type->parameters().is_empty()) {
        args.ensure_capacity(type->parameters().size());
        auto span = configuration.value_stack().span().slice_from_end(type->parameters().size());
        for (auto& value : span)
            args.unchecked_append(value);

        configuration.value_stack().remove(configuration.value_stack().size() - span.size(), span.size());
    }

    Result result { Trap::from_string("") };
    Outcome final_outcome = Outcome::Continue;

    if (source == CallAddressSource::DirectTailCall || source == CallAddressSource::IndirectTailCall) {
        auto prep_outcome = configuration.prepare_call(address, args, true);
        if (prep_outcome.is_error()) {
            m_trap = prep_outcome.release_error();
            return Outcome::Return;
        }

        final_outcome = Outcome::Return; // At this point we can only ever return (unless we succeed in tail-calling).
        if (prep_outcome.value().has_value()) {
            result = prep_outcome.value()->function()(configuration, args);
        } else {
            configuration.ip() = 0;
            return static_cast<Outcome>(0); // Continue from IP 0 in the new frame.
        }
    } else {
        if (instance->has<WasmFunction>()) {
            CallFrameHandle handle { *this, configuration };
            result = configuration.call(*this, address, move(args));
        } else {
            result = configuration.call(*this, address, move(args));
        }
    }

    if (result.is_trap()) {
        m_trap = move(result.trap());
        return Outcome::Return;
    }

    if (!result.values().is_empty()) {
        configuration.value_stack().ensure_capacity(configuration.value_stack().size() + result.values().size());
        for (auto& entry : result.values().in_reverse())
            configuration.value_stack().unchecked_append(entry);
    }

    return final_outcome;
}

template<typename PopTypeLHS, typename PushType, typename Operator, typename PopTypeRHS, typename... Args>
bool BytecodeInterpreter::binary_numeric_operation(Configuration& configuration, SourcesAndDestination const& addresses, Args&&... args)
{
    // bounds checked by Nor.
    auto rhs = configuration.take_source(0, addresses.sources).to<PopTypeRHS>();
    auto lhs = configuration.take_source(1, addresses.sources).to<PopTypeLHS>(); // bounds checked by verifier.
    PushType result;
    auto call_result = Operator { forward<Args>(args)... }(lhs, rhs);
    if constexpr (IsSpecializationOf<decltype(call_result), AK::ErrorOr>) {
        if (call_result.is_error())
            return trap_if_not(false, call_result.error());
        result = call_result.release_value();
    } else {
        result = call_result;
    }
    dbgln_if(WASM_TRACE_DEBUG, "{} {} {} = {}", lhs, Operator::name(), rhs, result);
    configuration.push_to_destination(Value(result), addresses.destination);
    return false;
}

template<typename PopType, typename PushType, typename Operator, size_t input_arg, typename... Args>
bool BytecodeInterpreter::unary_operation(Configuration& configuration, SourcesAndDestination const& addresses, Args&&... args)
{
    auto& entry = configuration.source_value(input_arg, addresses.sources); // bounds checked by verifier.
    auto value = entry.to<PopType>();
    auto call_result = Operator { forward<Args>(args)... }(value);
    PushType result;
    if constexpr (IsSpecializationOf<decltype(call_result), AK::ErrorOr>) {
        if (call_result.is_error())
            return trap_if_not(false, call_result.error());
        result = call_result.release_value();
    } else {
        result = call_result;
    }
    dbgln_if(WASM_TRACE_DEBUG, "map({}) {} = {}", Operator::name(), value, result);
    entry = Value(result);
    return false;
}

template<typename PopT, typename StoreT>
bool BytecodeInterpreter::pop_and_store(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    // bounds checked by verifier.
    auto entry = configuration.take_source(0, addresses.sources);
    auto value = ConvertToRaw<StoreT> {}(entry.to<PopT>());
    return store_value(configuration, instruction, value, 1, addresses);
}

template<typename StoreT>
bool BytecodeInterpreter::store_value(Configuration& configuration, Instruction const& instruction, StoreT value, size_t address_source, SourcesAndDestination const& addresses)
{
    auto& memarg = instruction.arguments().unsafe_get<Instruction::MemoryArgument>();
    dbgln_if(WASM_TRACE_DEBUG, "stack({}) -> temporary({}b)", value, sizeof(StoreT));
    auto base = configuration.take_source(address_source, addresses.sources).to<i32>();
    return store_to_memory(configuration, memarg, { &value, sizeof(StoreT) }, base);
}

template<size_t N>
bool BytecodeInterpreter::pop_and_store_lane_n(Configuration& configuration, Instruction const& instruction, SourcesAndDestination const& addresses)
{
    auto& memarg_and_lane = instruction.arguments().get<Instruction::MemoryAndLaneArgument>();
    // bounds checked by verifier.
    auto vector = configuration.take_source(0, addresses.sources).to<u128>();
    auto src = bit_cast<u8*>(&vector) + memarg_and_lane.lane * N / 8;
    auto base = configuration.take_source(1, addresses.sources).to<u32>();
    return store_to_memory(configuration, memarg_and_lane.memory, { src, N / 8 }, base);
}

bool BytecodeInterpreter::store_to_memory(Configuration& configuration, Instruction::MemoryArgument const& arg, ReadonlyBytes data, u32 base)
{
    auto const& address = configuration.frame().module().memories().data()[arg.memory_index.value()];
    auto memory = configuration.store().get(address);
    u64 instance_address = static_cast<u64>(base) + arg.offset;
    return store_to_memory(*memory, instance_address, data);
}

template<typename T>
bool BytecodeInterpreter::store_to_memory(MemoryInstance& memory, u64 address, T value)
{
    Checked addition { address };
    size_t data_size;
    if constexpr (IsSame<ReadonlyBytes, T>)
        data_size = value.size();
    else
        data_size = sizeof(T);

    addition += data_size;
    if (addition.has_overflow() || addition.value() > memory.size()) [[unlikely]] {
        m_trap = Trap::from_string("Memory access out of bounds");
        dbgln_if(WASM_TRACE_DEBUG, "LibWasm: Memory access out of bounds (expected 0 <= {} and {} <= {})", address, address + data_size, memory.size());
        return true;
    }

    dbgln_if(WASM_TRACE_DEBUG, "temporary({}b) -> store({})", data_size, address);
    if constexpr (IsSame<ReadonlyBytes, T>)
        (void)value.copy_to(memory.data().bytes().slice(address, data_size));
    else
        memcpy(memory.data().bytes().offset_pointer(address), &value, data_size);
    return false;
}

template<typename T>
T BytecodeInterpreter::read_value(ReadonlyBytes data)
{
    VERIFY(sizeof(T) <= data.size());
    if (bit_cast<FlatPtr>(data.data()) % alignof(T)) {
        alignas(T) u8 buf[sizeof(T)];
        memcpy(buf, data.data(), sizeof(T));
        return bit_cast<LittleEndian<T>>(buf);
    }
    return *bit_cast<LittleEndian<T> const*>(data.data());
}

template<>
float BytecodeInterpreter::read_value<float>(ReadonlyBytes data)
{
    return bit_cast<float>(read_value<u32>(data));
}

template<>
double BytecodeInterpreter::read_value<double>(ReadonlyBytes data)
{
    return bit_cast<double>(read_value<u64>(data));
}

CompiledInstructions try_compile_instructions(Expression const& expression, Span<FunctionType const> functions)
{
    CompiledInstructions result;
    result.dispatches.ensure_capacity(expression.instructions().size());
    result.extra_instruction_storage.ensure_capacity(expression.instructions().size());
    i32 i32_const_value { 0 };
    LocalIndex local_index_0 { 0 };
    LocalIndex local_index_1 { 0 };
    enum class InsnPatternState {
        Nothing,
        GetLocal,
        GetLocalI32Const,
        GetLocalx2,
        I32Const,
        I32ConstGetLocal,
    } pattern_state { InsnPatternState::Nothing };
    static Instruction nop { Instructions::nop };
    constexpr auto default_dispatch = [](Instruction const& instruction) {
        return Dispatch {
            { .instruction_opcode = instruction.opcode() },
            &instruction,
            { .sources = { Dispatch::Stack, Dispatch::Stack, Dispatch::Stack }, .destination = Dispatch::Stack }
        };
    };

    for (auto& instruction : expression.instructions()) {
        if (instruction.opcode() == Instructions::call) {
            auto& function = functions[instruction.arguments().get<FunctionIndex>().value()];
            if (function.results().size() <= 1 && function.parameters().size() < 4) {
                pattern_state = InsnPatternState::Nothing;
                OpCode op { Instructions::synthetic_call_00.value() + function.parameters().size() * 2 + function.results().size() };
                result.extra_instruction_storage.unchecked_append(Instruction(
                    op,
                    instruction.arguments()));
                result.dispatches.unchecked_append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                continue;
            }
        }

        switch (pattern_state) {
        case InsnPatternState::Nothing:
            if (instruction.opcode() == Instructions::local_get) {
                local_index_0 = instruction.local_index();
                pattern_state = InsnPatternState::GetLocal;
            } else if (instruction.opcode() == Instructions::i32_const) {
                i32_const_value = instruction.arguments().get<i32>();
                pattern_state = InsnPatternState::I32Const;
            }
            break;
        case InsnPatternState::GetLocal:
            if (instruction.opcode() == Instructions::local_get) {
                local_index_1 = instruction.local_index();
                pattern_state = InsnPatternState::GetLocalx2;
            } else if (instruction.opcode() == Instructions::i32_const) {
                i32_const_value = instruction.arguments().get<i32>();
                pattern_state = InsnPatternState::GetLocalI32Const;
            } else if (instruction.opcode() == Instructions::i32_store) {
                // `local.get a; i32.store m` -> `i32.storelocal a m`.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_i32_storelocal,
                    local_index_0,
                    instruction.arguments()));

                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            } else if (instruction.opcode() == Instructions::i64_store) {
                // `local.get a; i64.store m` -> `i64.storelocal a m`.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_i64_storelocal,
                    local_index_0,
                    instruction.arguments()));

                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            } else {
                pattern_state = InsnPatternState::Nothing;
            }
            break;
        case InsnPatternState::GetLocalx2:
            if (instruction.opcode() == Instructions::i32_add) {
                // `local.get a; local.get b; i32.add` -> `i32.add_2local a b`.
                // Replace the previous two ops with noops, and add i32.add_2local.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.dispatches[result.dispatches.size() - 2] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction {
                    Instructions::synthetic_i32_add2local,
                    local_index_0,
                    local_index_1,
                });
                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            }
            if (instruction.opcode() == Instructions::i32_store) {
                // `local.get a; i32.store m` -> `i32.storelocal a m`.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_i32_storelocal,
                    local_index_1,
                    instruction.arguments()));

                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            }
            if (instruction.opcode() == Instructions::i64_store) {
                // `local.get a; i64.store m` -> `i64.storelocal a m`.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_i64_storelocal,
                    local_index_1,
                    instruction.arguments()));

                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            }
            if (instruction.opcode() == Instructions::i32_const) {
                swap(local_index_0, local_index_1);
                i32_const_value = instruction.arguments().get<i32>();
                pattern_state = InsnPatternState::GetLocalI32Const;
            } else {
                pattern_state = InsnPatternState::Nothing;
            }
            break;
        case InsnPatternState::I32Const:
            if (instruction.opcode() == Instructions::local_get) {
                local_index_0 = instruction.local_index();
                pattern_state = InsnPatternState::I32ConstGetLocal;
            } else if (instruction.opcode() == Instructions::i32_const) {
                i32_const_value = instruction.arguments().get<i32>();
            } else if (instruction.opcode() == Instructions::local_set) {
                // `i32.const a; local.set b` -> `local.seti32_const b a`.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_local_seti32_const,
                    instruction.local_index(),
                    i32_const_value));
                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            } else {
                pattern_state = InsnPatternState::Nothing;
            }
            break;
        case InsnPatternState::GetLocalI32Const:
            if (instruction.opcode() == Instructions::local_set) {
                // `i32.const a; local.set b` -> `local.seti32_const b a`.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_local_seti32_const,
                    instruction.local_index(),
                    i32_const_value));
                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            }
            if (instruction.opcode() == Instructions::i32_const) {
                i32_const_value = instruction.arguments().get<i32>();
                pattern_state = InsnPatternState::I32Const;
                break;
            }
            if (instruction.opcode() == Instructions::local_get) {
                local_index_0 = instruction.local_index();
                pattern_state = InsnPatternState::I32ConstGetLocal;
                break;
            }
            [[fallthrough]];
        case InsnPatternState::I32ConstGetLocal:
            if (instruction.opcode() == Instructions::i32_const) {
                i32_const_value = instruction.arguments().get<i32>();
                pattern_state = InsnPatternState::GetLocalI32Const;
            } else if (instruction.opcode() == Instructions::local_get) {
                swap(local_index_0, local_index_1);
                local_index_1 = instruction.local_index();
                pattern_state = InsnPatternState::GetLocalx2;
            } else if (instruction.opcode() == Instructions::i32_add) {
                // `i32.const a; local.get b; i32.add` -> `i32.add_constlocal b a`.
                // Replace the previous two ops with noops, and add i32.add_constlocal.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.dispatches[result.dispatches.size() - 2] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_i32_addconstlocal,
                    local_index_0,
                    i32_const_value));

                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            }
            if (instruction.opcode() == Instructions::i32_and) {
                // `i32.const a; local.get b; i32.add` -> `i32.and_constlocal b a`.
                // Replace the previous two ops with noops, and add i32.and_constlocal.
                result.dispatches[result.dispatches.size() - 1] = default_dispatch(nop);
                result.dispatches[result.dispatches.size() - 2] = default_dispatch(nop);
                result.extra_instruction_storage.append(Instruction(
                    Instructions::synthetic_i32_andconstlocal,
                    local_index_0,
                    i32_const_value));

                result.dispatches.append(default_dispatch(result.extra_instruction_storage.unsafe_last()));
                pattern_state = InsnPatternState::Nothing;
                continue;
            }
            pattern_state = InsnPatternState::Nothing;
            break;
        }
        result.dispatches.unchecked_append(default_dispatch(instruction));
    }

    // Remove all nops (that were either added by the above patterns or were already present in the original instructions),
    // and adjust jumps accordingly.
    RedBlackTree<size_t, Empty> nops_to_remove;
    for (size_t i = 0; i < result.dispatches.size(); ++i) {
        if (result.dispatches[i].instruction->opcode() == Instructions::nop)
            nops_to_remove.insert(i, {});
    }

    auto nops_to_remove_it = nops_to_remove.begin();
    size_t offset_accumulated = 0;
    for (size_t i = 0; i < result.dispatches.size(); ++i) {
        if (result.dispatches[i].instruction->opcode() == Instructions::nop) {
            offset_accumulated++;
            ++nops_to_remove_it;
            continue;
        }

        auto& args = result.dispatches[i].instruction->arguments();
        if (auto ptr = args.get_pointer<Instruction::StructuredInstructionArgs>()) {
            auto offset_to = [&](InstructionPointer ip) {
                size_t offset = 0;
                auto it = nops_to_remove_it;
                while (it != nops_to_remove.end() && it.key() < ip.value()) {
                    ++offset;
                    ++it;
                }
                return offset;
            };

            InstructionPointer end_ip = ptr->end_ip.value() - offset_accumulated - offset_to(ptr->end_ip - ptr->else_ip.has_value());
            auto else_ip = ptr->else_ip.map([&](InstructionPointer const& ip) -> InstructionPointer { return ip.value() - offset_accumulated - offset_to(ip - 1); });
            auto instruction = *result.dispatches[i].instruction;
            instruction.arguments() = Instruction::StructuredInstructionArgs {
                .block_type = ptr->block_type,
                .end_ip = end_ip,
                .else_ip = else_ip,
            };
            result.extra_instruction_storage.append(move(instruction));
            result.dispatches[i].instruction = &result.extra_instruction_storage.unsafe_last();
            result.dispatches[i].instruction_opcode = result.dispatches[i].instruction->opcode();
        }
    }

    result.dispatches.remove_all(nops_to_remove, [](auto const& it) { return it.key(); });

    // Allocate registers for instructions, meeting the following constraints:
    // - Any instruction that produces polymorphic stack, or requires its inputs on the stack must sink all active values to the stack.
    // - All instructions must have the same location for their last input and their destination value (if any).
    // - Any value left at the end of the expression must be on the stack.
    // - All inputs and outputs of call instructions with <4 inputs and <=1 output must be on the stack.

    using ValueID = DistinctNumeric<size_t, struct ValueIDTag, AK::DistinctNumericFeature::Comparison, AK::DistinctNumericFeature::Arithmetic, AK::DistinctNumericFeature::Increment>;
    using IP = DistinctNumeric<size_t, struct IPTag, AK::DistinctNumericFeature::Comparison>;

    struct Value {
        ValueID id;
        IP definition_index;
        Vector<IP> uses;
        IP last_use = 0;
    };

    struct ActiveReg {
        ValueID value_id;
        IP end;
        Dispatch::RegisterOrStack reg;
    };

    HashMap<ValueID, Value> values;
    Vector<ValueID> value_stack;
    ValueID next_value_id = 0;
    HashMap<IP, ValueID> instr_to_output_value;
    HashMap<IP, Vector<ValueID>> instr_to_input_values;
    HashMap<IP, Vector<ValueID>> instr_to_dependent_values;

    instr_to_output_value.ensure_capacity(result.dispatches.size());
    instr_to_input_values.ensure_capacity(result.dispatches.size());
    instr_to_dependent_values.ensure_capacity(result.dispatches.size());

    Vector<ValueID> forced_stack_values;

    Vector<ValueID> parent;      // parent[id] -> parent ValueID of id in the alias tree
    Vector<ValueID> rank;        // rank[id] -> rank of the tree rooted at id
    Vector<ValueID> final_roots; // final_roots[id] -> the final root parent of id

    auto ensure_id_space = [&](ValueID id) {
        if (id >= parent.size()) {
            size_t old_size = parent.size();
            parent.resize(id.value() + 1);
            rank.resize(id.value() + 1);
            final_roots.resize(id.value() + 1);
            for (size_t i = old_size; i <= id; ++i) {
                parent[i] = i;
                rank[i] = 0;
                final_roots[i] = i;
            }
        }
    };

    auto find_root = [&parent](this auto& self, ValueID x) -> ValueID {
        if (parent[x.value()] != x)
            parent[x.value()] = self(parent[x.value()]);
        return parent[x.value()];
    };

    auto union_alias = [&](ValueID a, ValueID b) {
        ensure_id_space(max(a, b));

        auto const root_a = find_root(a);
        auto const root_b = find_root(b);

        if (root_a == root_b)
            return;

        if (rank[root_a.value()] < rank[root_b.value()]) {
            parent[root_a.value()] = root_b;
        } else if (rank[root_a.value()] > rank[root_b.value()]) {
            parent[root_b.value()] = root_a;
        } else {
            parent[root_b.value()] = root_a;
            ++rank[root_a.value()];
        }
    };

    HashTable<ValueID> stack_forced_roots;

    Vector<Vector<ValueID>> live_at_instr;
    live_at_instr.resize(result.dispatches.size());

    for (size_t i = 0; i < result.dispatches.size(); ++i) {
        auto& dispatch = result.dispatches[i];
        auto opcode = dispatch.instruction->opcode();
        size_t inputs = 0;
        size_t outputs = 0;
        Vector<ValueID> dependent_ids;

        bool variadic_or_unknown = false;
        auto const is_known_call = opcode == Instructions::synthetic_call_00 || opcode == Instructions::synthetic_call_01
            || opcode == Instructions::synthetic_call_10 || opcode == Instructions::synthetic_call_11
            || opcode == Instructions::synthetic_call_20 || opcode == Instructions::synthetic_call_21
            || opcode == Instructions::synthetic_call_30 || opcode == Instructions::synthetic_call_31;

        switch (opcode.value()) {
#define M(name, _, ins, outs)                    \
    case Instructions::name.value():             \
        if constexpr (ins == -1 || outs == -1) { \
            variadic_or_unknown = true;          \
        } else {                                 \
            inputs = ins;                        \
            outputs = outs;                      \
        }                                        \
        break;
            ENUMERATE_WASM_OPCODES(M)
#undef M
        }

        if (variadic_or_unknown) {
            for (auto val : value_stack) {
                auto& value = values.get(val).value();
                value.uses.append(i);
                value.last_use = max(value.last_use, i);
                dependent_ids.append(val);
                forced_stack_values.append(val);
                live_at_instr[i].append(val);
            }
            value_stack.clear_with_capacity();
        }

        Vector<ValueID> input_ids;
        if (!variadic_or_unknown && value_stack.size() < inputs) {
            size_t j = 0;
            for (; j < inputs && !value_stack.is_empty(); ++j) {
                auto input_value = value_stack.take_last();
                input_ids.append(input_value);
                dependent_ids.append(input_value);
                auto& value = values.get(input_value).value();
                value.uses.append(i);
                value.last_use = max(value.last_use, i);
            }

            for (; j < inputs; ++j) {
                auto val_id = next_value_id++;
                values.set(val_id, Value { val_id, i, {}, i });
                input_ids.append(val_id);
                forced_stack_values.append(val_id);
                ensure_id_space(val_id);
            }

            inputs = 0;
        }

        for (size_t j = 0; j < inputs; ++j) {
            auto input_value = value_stack.take_last();
            input_ids.append(input_value);
            dependent_ids.append(input_value);
            auto& value = values.get(input_value).value();
            value.uses.append(i);
            value.last_use = max(value.last_use, i);

            if (is_known_call)
                forced_stack_values.append(input_value);
        }
        instr_to_input_values.set(i, input_ids);
        instr_to_dependent_values.set(i, dependent_ids);

        ValueID output_id = NumericLimits<size_t>::max();
        for (size_t j = 0; j < outputs; ++j) {
            auto id = next_value_id++;
            values.set(id, Value { id, i, {}, i });
            value_stack.append(id);
            instr_to_output_value.set(i, id);
            output_id = id;
            ensure_id_space(id);

            if (is_known_call)
                forced_stack_values.append(id);
        }

        // Alias the output with the last input, if one exists.
        if (outputs > 0) {
            auto maybe_input_ids = instr_to_input_values.get(i);
            if (maybe_input_ids.has_value() && !maybe_input_ids->is_empty()) {
                auto last_input_id = maybe_input_ids->last();
                union_alias(output_id, last_input_id);

                auto alias_root = find_root(last_input_id);

                // If any *other* input is forced to alias the output, we have no choice but to place all three on the stack.
                for (size_t j = 0; j < maybe_input_ids->size() - 1; ++j) {
                    auto input_root = find_root((*maybe_input_ids)[j]);
                    if (input_root == alias_root) {
                        stack_forced_roots.set(alias_root);
                        break;
                    }
                }
            }
        }
    }

    forced_stack_values.extend(value_stack);

    for (size_t i = 0; i < final_roots.size(); ++i)
        final_roots[i] = find_root(i);

    // One more pass to ensure that all inputs and outputs of known calls are forced to the stack after aliases are resolved.
    for (size_t i = 0; i < result.dispatches.size(); ++i) {
        auto const opcode = result.dispatches[i].instruction->opcode();
        auto const is_known_call = opcode == Instructions::synthetic_call_00 || opcode == Instructions::synthetic_call_01
            || opcode == Instructions::synthetic_call_10 || opcode == Instructions::synthetic_call_11
            || opcode == Instructions::synthetic_call_20 || opcode == Instructions::synthetic_call_21
            || opcode == Instructions::synthetic_call_30 || opcode == Instructions::synthetic_call_31;

        if (is_known_call) {
            if (auto input_ids = instr_to_input_values.get(i); input_ids.has_value()) {
                for (auto input_id : *input_ids) {
                    if (input_id.value() < final_roots.size()) {
                        stack_forced_roots.set(final_roots[input_id.value()]);
                    }
                }
            }

            if (auto output_id = instr_to_output_value.get(i); output_id.has_value()) {
                if (output_id->value() < final_roots.size()) {
                    stack_forced_roots.set(final_roots[output_id->value()]);
                }
            }
        }
    }

    struct LiveInterval {
        ValueID value_id;
        IP start;
        IP end;
        bool forced_to_stack { false };
    };

    Vector<LiveInterval> intervals;
    intervals.ensure_capacity(values.size());

    for (auto const& [_, value] : values) {
        auto start = value.definition_index;
        auto end = max(start, value.last_use);
        intervals.append({ value.id, start, end });
    }

    for (auto id : forced_stack_values)
        stack_forced_roots.set(final_roots[id.value()]);
    for (auto& interval : intervals)
        interval.forced_to_stack = stack_forced_roots.contains(final_roots[interval.value_id.value()]);

    quick_sort(intervals, [](auto const& a, auto const& b) {
        return a.start < b.start;
    });

    HashMap<ValueID, Dispatch::RegisterOrStack> value_alloc;
    RedBlackTree<size_t, ActiveReg> active_by_end;

    auto expire_old_intervals = [&](IP current_start) {
        while (true) {
            auto it = active_by_end.find_smallest_not_below_iterator(current_start.value());
            if (it.is_end())
                break;
            active_by_end.remove(it.key());
        }
    };

    HashMap<ValueID, Vector<LiveInterval*>> alias_groups;
    for (auto& interval : intervals) {
        auto root = final_roots[interval.value_id.value()];
        alias_groups.ensure(root).append(&interval);
    }

    struct RegisterOccupancy {
        Bitmap occupied;
        Vector<ValueID> roots_at_position;

        bool can_place(IP start, IP end, ValueID root) const
        {
            for (size_t i = start.value(); i <= end.value(); ++i) {
                if (occupied.get(i)) {
                    if (roots_at_position.size() > i && roots_at_position[i].value() != root.value())
                        return false;
                }
            }
            return true;
        }

        void place(IP start, IP end, ValueID root)
        {
            if (roots_at_position.size() <= end.value())
                roots_at_position.resize(end.value() + 1);

            occupied.set_range<true>(start.value(), end.value() - start.value() + 1);
            for (size_t i = start.value(); i <= end.value(); ++i)
                roots_at_position[i] = root;
        }
    };

    Array<RegisterOccupancy, Dispatch::CountRegisters> reg_occupancy;

    for (u8 r = 0; r < Dispatch::CountRegisters; ++r) {
        auto bitmap_result = Bitmap::create(result.dispatches.size(), false);
        if (bitmap_result.is_error()) {
            dbgln("Failed to allocate register bitmap of size {} ({}), bailing on register allocation", result.dispatches.size(), bitmap_result.error());
            return {};
        }
        reg_occupancy[r].occupied = bitmap_result.release_value();
    }

    for (auto& [key, group] : alias_groups) {
        IP group_start = NumericLimits<size_t>::max();
        IP group_end = 0;
        auto group_forced_to_stack = false;

        for (auto* interval : group) {
            group_start = min(group_start, interval->start);
            group_end = max(group_end, interval->end);
            if (interval->forced_to_stack)
                group_forced_to_stack = true;
        }

        expire_old_intervals(group_start);

        Dispatch::RegisterOrStack reg = Dispatch::RegisterOrStack::Stack;
        if (!group_forced_to_stack) {
            Array<bool, Dispatch::CountRegisters> used_regs;
            used_regs.fill(false);

            for (auto const& active_entry : active_by_end) {
                if (active_entry.reg != Dispatch::RegisterOrStack::Stack)
                    used_regs[to_underlying(active_entry.reg)] = true;
            }

            auto group_root = final_roots[key.value()];

            for (u8 r = 0; r < Dispatch::CountRegisters; ++r) {
                if (used_regs[r])
                    continue;

                if (reg_occupancy[r].can_place(group_start, group_end, group_root)) {
                    reg = static_cast<Dispatch::RegisterOrStack>(r);
                    active_by_end.insert(group_end.value(), { key, group_end, reg });
                    reg_occupancy[r].place(group_start, group_end, group_root);
                    break;
                }
            }
        }

        for (auto* interval : group)
            value_alloc.set(interval->value_id, reg);
    }

    for (size_t i = 0; i < result.dispatches.size(); ++i) {
        auto& dispatch = result.dispatches[i];
        auto input_ids = instr_to_input_values.get(i).value_or({});

        for (size_t j = 0; j < input_ids.size(); ++j) {
            auto reg = value_alloc.get(input_ids[j]).value_or(Dispatch::RegisterOrStack::Stack);
            dispatch.sources[j] = reg;
        }

        if (auto output_id = instr_to_output_value.get(i); output_id.has_value())
            dispatch.destination = value_alloc.get(*output_id).value_or(Dispatch::RegisterOrStack::Stack);
    }

    if constexpr (should_try_to_use_direct_threading) {
        for (auto& dispatch : result.dispatches) {
#define CASE(name, ...)                                                                                                                  \
    case Instructions::name.value():                                                                                                     \
        dispatch.handler_ptr = bit_cast<FlatPtr>(&InstructionHandler<Instructions::name.value()>::template operator()<false, Continue>); \
        break;

            switch (dispatch.instruction->opcode().value()) {
                ENUMERATE_WASM_OPCODES(CASE)
            default:
                VERIFY_NOT_REACHED();
            }
        }
        result.direct = true;
    }

    return result;
}

}
